Contact
the Course Instructor:
Instructor |
Office |
Electronic
Mail |
Phone |
Office
Hours |
Dr. Rob
Hellström |
209A,
Conant Science Building, Bridgewater State College |
(508)
531-2842 |
Contact
instructor by e-mail or phone |
Course
Prerequisites:
Would be eligible
to sign up for graduate level courses at Bridgewater State College.
Course Structure:
Meeting |
Course # |
Day,
Time |
Place
|
Lecture/Lab |
ES560-G1 (1
credit hr) |
Monday,
24 June 9 am - 12 noon Tuesday,
25 June 9 am - 3 pm Wednesday,
26 June 9 am - 3 pm |
Plymouth
Community Intermediate School |
Required
Textbook:
No required textbook: students will receive laboratory
handouts and copies of lecture notes.
Helpful
Resources:
These text resources are not required, but may be helpful:
- Ahrens, C. D., 2001: Essentials of Meteorology. 3rd
ed. Brooks/Cole Publishing. 464 pp.
- Lutgens, F. K., and E. J. Tarbuck, 2001: The Atmosphere.
8th ed. Prentice Hall. 484 pp.
- Danielson, E. W., J. Levin, and E. Abrams, 1998: Meteorology.
WCB McGraw-Hill. 462 pp.
- Online Weather Studies: Study Guide, 2001: Fourth Printing. American
Meteorological Society. Preview at: http://www.ametsoc.org/dstreme/index.html
- Science and Technology/Engineering Curriculum Frameworks
for Massachusetts: World Wide Web access to MS Word download: http://www.doe.mass.edu/frameworks/scitech01/0501final.doc
Course
Objectives:
This course
is designed for middle and high school teachers of earth science and general
science. Topics will include the use of the Internet, data collecting and
weather analysis. Teachers will gain experience through presentations of
material. Emphasis will be placed on current issues and innovative use of
available resources. A course web page will provide access to content material
and updates; access using the Internet Explorer or Netscape world wide web
browsers.
http://webhost.bridgew.edu/rhellstrom/courses/ES560/ES560.htm
Grading:
Grading for this course is based on completion of two (2)
independent projects and one (1) 15-minute presentation/demonstration of a content-based,
“hands-on” module for teaching Earth and/or Space Science material to Middle or
High School students.
General
Format + Participation (10%):
- The first hour or so of each
meeting period presents theoretical and conceptual material
- Remainder of each meeting period
provides time to ask questions and for you to complete activities as assigned
in the outline below
- You will be required to fill out
a beginning and end-of-the course survey
- You will receive a course packet
of the labs and additional ideas
Projects
(50%): The
instructor will demonstrate and you will complete two (2) projects during the
second of three class meetings. Motivating critical thinking, inquiry, use of
mathematics, and understanding the scientific method are the primary objectives
of the projects. Projects will include field observations, Internet activities,
interpretation of real-time weather images and digital data, lab-oriented
content material and applications of a spreadsheet (Microsoft Excel) for
graphing and analysis. The exercise outline (handed out at the first
class meeting) and the course web page provide further details. The
topic of this ES560 offering is Phase Change of Water in the Atmosphere.
You are required to complete the following projects. You need to turn in your
project reports at the last class meeting or mail (or e-mail) them to the
instructor within one week of your last class meeting.
Project #1: Supercooled Water and Latent Heat in the
Atmosphere
Phase
change of water releases or absorbs energy from its surrounding environment.
This project examines the concepts of latent heat and supercooled water through
hands-on experimentation and graphical analysis. Understanding latent heat and
other forms of heat transfer is fundamental studying meteorological phenomena,
such as precipitation formation and thunderstorm and hurricane
development.
Project
#2: Clouds and Snow
Clouds
composed of liquid droplets, ice crystals or a combination of both form by the
processes of condensation and ice crystallization. Clouds help regulate the
weather and climate on Earth. This project examines the concepts of cloud
formation. Understanding the conditions necessary for cloud formation helps
meteorologists and climatologists analyze weather patterns and increase the
accuracy of forecasts.
Project
#3: Detecting water in the Atmosphere: analysis
and interpretation of real-time weather data from the World Wide Web
Land-based
weather measurements and remote sensing from radar and numerous satellite-based
instruments permit atmospheric scientists (and anyone with access to the Web)
to detect and interpret the spatial patterns and dynamic nature water in the
atmosphere. This project demonstrates some valuable sources and procedures for detecting
and interpreting local to global patterns of water in liquid, gas and solid
form.
Material
requirements are kept simple and easily acquired at low cost. The two projects
will emphasize field observations, interpretation of patterns, working with
fractions and geometry, graphing techniques, and scientific writing
skills.
Presentation
of a “hands-on” teaching module (40%): Upon completing the two independent projects, you will
create a new (or modify an existing) activity that effectively achieves
objectives similar to those of the independent projects. Topics should fall
within those covered by Earth and/or Space Sciences. You may use concepts
stated in Strand 1: Earth and Space Science, of the Science and
Technology/Engineering Curriculum Framework for Massachusetts. Satisfactory
completion requires a typed description of the module and a 15-minute
presentation/demonstration of how it works; you will present your project
during the last class meeting. A
write-up of the module and copies for the class are required. We will compile
the modules into a teaching guide and share ideas at the end of the course.
Attend all classes as scheduled above. Contact the
instructor prior to the class if you cannot attend the designated class times.
You will be contacted if poor weather conditions necessitate cancellation of a
class. A special phone tree and e-mail list will
facilitate communication among students and the instructor; you are advised to
fill this out during the first class period. Every student will receive a
photo-copy of the class communication list.
a. One loose-leaf, 3-ring binder (1.0 inch size recommended)
b. One 3.5 inch floppy diskette (IBM formatted)
c. 1 empty (clear) 2 Liter bottle with cap
d. Styrofoam cooler
e. Clear plastic cup
f. Ordinary table salt (1/4 cup per student)
g. Access to hot water tap
h. Two liquid-in-glass thermometers
i. Flat-black spray paint
j. 2 Large disposable aluminum cookie sheets (oven liners
are fine)
k. Glass coffee pot or large glass beaker of similar size
l. Large Zip-lock bag
m. Enough ice cubes to fill the Zip-lock bag
n. Book of matches
o. Flashlight
p. Leather or insulated work gloves (handling dry ice)
q. Duct tape (about 2 meters length)
r. Dry ice pellets (order from the Dry Ice Corporation,
Rockland, MA:
Phone:
781.871.4407
Comes in 50
pound boxes at about $32.00 per box => enough for 5 experiments
s. You will receive additional materials to complete the
course content
Special needs:
Any student eligible for and needing academic adjustments or
accommodations because of a disability is requested to contact the instructor
prior to the first scheduled class.