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Astronomy and Physics Research
is a UC-approved "g" elective class in
which students get training on research techniques related to astronomy
and physics and pursue an independent study research project on their
own.
For examples of past research projects, go to the Space Academy site
(button at left) and click on Projects.
Current Research Topics
- Microvariability of blazars
- Observations of GLAST program objects with the Spitzer Space Telescope
- Gender bias in perceptions of science professionals
- Radio emissions of quasars/Jupiter/the sun
- Variable stars in the Andromeda Galaxy
- Light curve for eclipsing binary Algol
Curriculum
The Course Outline (that appears below) as
a pdf file is located here.
The Research
activity by standard matrix is here.
The standard
by research activity matrix is here.
The UC a-g course
classification proposal is here. Note that we asked
for a "d" evaluation but were classified as a "g" course elective.
Course Outline
Astronomy and Physics Research is a year-long course which will guide
students through a series of authentic research projects involving physics
and astronomy. The research projects will either be part of a larger
organized project sponsored by a University or science center, or they
will be independent projects which address topics determined by the student,
teacher and a mentor. The curriculum for the class will cover all of
the California Science Content Standards for experimental design, plus
topics in depth related to several collaborative projects such as the
Lawrence Hall of Science’s Hands On Universe, the National Optical
Astronomy Observatory’s Teacher Leaders in Research Based Science
Education, and others. These topics will include astronomy, mathematics,
and physics content.
Course objectives:
- Students will learn how experiments are designed.
- Students will design
their own experiments and analyze the experiments of others.
- Students
will learn how astronomers and other scientists gather and reduce
data.
- Students will collect, reduce, and report astronomical observations.
- Students will write testable hypotheses suitable for a high school
science course or science fair.
- Students will learn advanced instrument
techniques, recordkeeping, file mangement, data reduction,
- graphing
techniques, and how
to construct a scientific research paper.
- Students will
conduct a scientific research project and present the results in
a public setting, and publish the
results
in a setting beyond the
classroom.
- Students will learn how to find best-fit curves,
estimate error of measurements, how to reduce the error in measurements,
and
how to
control interfering
variables in experimental design.
Course assessment:
- Rubric-based written experimental design papers.
- Rubric-based scoring
for each assignment.
- Teacher observation of presentation.Written reports
evaluated by rubric and peer evaluation.
- Rubric based scoring. Frequent--
with each unit of study.
- Performance assessments, at least once per
semester. Presentation of research results at end of calendar year.
Traditional multiple-choice
and open-response assessment in each unit of study.
Content Outline
1) Introduction to Experimental Design
a) Measurements in Physical
Science and Astronomy
b) Random error vs. systematic error
c) Accuracy vs. Precision
d) Standard deviation and significance
e) Detailed analysis of significant figures
f) Interpolation and Extrapolation\
g) Small number statistics
2) Background research (Paper Analysis Activity)
a) Sources of information
(“the literature”)
b) Use of internet research /reliability of sources
c) Interviewing researchers/seeking a mentor
d) Establishing a working hypothesis
e) Understanding independent and dependent variables
f) Causal relationships vs. correlations
g) Writing a hypotheses which can be answered
h) Reading and Writing research papers
i) Reading papers
(1) Analyzing the Structure
(2) Identifying the hypothesis
(3) Sources of data
(4) Sources of error
(5) Addressing the hypothesis in the conclusion
ii) Writing research papers - introduction
(1) Audience
(2) Peer Review
(3) Collaborative papers
(4) Seeking a valid hypothesis
3) Data collection
a) Organizing data
b) Multi-variable experiments
c) Tracking interfering variables
d) Data analysis (Centripetal Force lab)
i) Best fit lines
ii) Curve fitting/graph straightening
iii) Binning and histograms (Radiation lab)
iv) Interpolation/Extrapolation
v) Correlation coefficients
4) Tools and Techniques
a) Video analysis of motion
i) Basic kinematics (acceleration lab)
ii) Conservation of momentum (momentum lab)
iii) Analysis of motion within the Crab Nebula (pending)
b) Optoelectronic and piezoelectric sensors
i) Photogates- (Conservation of Energy and sinusoidal motion lab)
ii) Force and acceleration sensors – (rocket impulse analysis
lab)
(1) Includes numerical integration introduction
c) Analysis of optical equipment
i) Determination of plate scale (plate scale lab)
ii) Determining the figure of a mirror
iii) Focal length, aperture, Dawe’s Limit, collimation (telescope
design lab)
iv) Charge coupled devices (CCDs)
(1) Comparison to chemical film
(2) Demonstration of reciprocity failure
(3) Bloom
(4) Review “Introduction to image processing” from
astro class
(5) Frequency response (‘Q’ vs. wavelength)
(6) Small number statistics revisited
(7) Construction of color images (“Pretty Pictures” activity)
v)
Pre-fabricated Exercises in Experimental Procedure
a) HOU: Measuring Jupiter’s Moons lab
i) Content: Gravity, ratios, Kepler’s laws, curve fitting
b) TLRBSE: Spectroscopic Analysis lab
i) Content: Atomic structure, quantum mechanics, Doppler
effect
c) Measuring the distance to the moon through
parallax lab
i) Content: Geometry application, plate scale,
coordinate transforms
d) TLRBSE: Distribution of novae in M31 as a
function of radial distance lab
i) Purpose: Verification of published experimental
results
ii) Content: Logarithims, brightness ratios,
geometry, data reduction
6) Participation in Pre-Existing Experimental
Research Projects
Students will participate in at least three of
the following projects, and more as time permits.
a) HOU: Supernova Search
b) TLRBSE: Nova search
c) HOU: Asteroid search
d) TLRBSE: AGN Spectroscopy
e) Projects with amateur astronomers
f) Radio telescopy with RA 1420 project
i) Current research question: Does the angle
between Jupiter, Earth and Io affect the strength
of radio emissions from
Jupiter?
7) Selection and Pursuit of a Research Project
*
a) Project Selection...The student will:
i) Recognize own interests, strengths, and resources,
and select a relevant, useful topic that solves
a problem.
ii) Research topics in library, news articles,
and magazines, and with professionals in the
field.
iii) Evaluate another's research topic.
iv) Select a topic which can be completed within
the constraints of the resources available.
b) Research Project Proposal...The student will:
i) State a purpose.
ii) Create an experimental procedure which is
duplicatable, measurable, and controllable.
iii) Propose a hypothesis.
iv) List materials.
v) Assess strengths and relate constructive
criticism of others.
c) Library and Internet Research...The student will:
i) Research,
evaluate, organize, and synthesize library and internet information.
ii) Identify source, prepare questions, an interview
or correspond with a professional
in the field.
iii) Take notes on chosen
topic and speech.
iv) Write an extensive
research paper on the available
literature on their chosen
topic.
v) Write bibliography
of paper.
d) Experimental Research Paper...The student will:
i) Synthesize purpose, review of literature,
hypothesis materials, procedure, results, and
conclusion.
ii) Write a formal paper on the completed project.
iii) Formally and orally present entire project.
iv) Publish the paper either in the TLRBSE research
journal, the web site www.AstronomyTeacher.com,
a public science fair,
or other non-classroom venue
as appropriate.
* Adapted from Liberty USHD Advanced Bio Research course
posted at www.ucop.edu.
Great research web site:
http://adswww.harvard.edu/
Papers 2 years old and older can usually be downloaded in their entirety.
Great for background references.
Tri Nguyen, Jerry Lancaster, and Robert Sullenger, 2003-2004's Astronomy
and Physics Research class, took this picture of the central portion
of the Orion Nebula in their first attempt at taking astrophotos using
the school's telescope.

Handouts
New: A complete list of all handouts and dry-erase board notes captured
electronically is posted at this page:
http://homepage.mac.com/astronomyteacher/FileSharing1.html
Mimio board notes--select the notes you want to see and click download.
JPG files will be downloaded which you can open with any web browser
or graphics program. Depending on the browser you are using they may
or may not open automatically.
Documents--Please note: Most of these documents are in Adobe Acrobat
format. They require the use of the (free) Adobe
Acrobat reader. This is used instead of html because the document
formatting remains identical to what the printed version looks like,
no matter what your browser settings, and the format is universal to
all computer platforms (Windows, DOS, Unix,Sun, and Mac). Requires Adobe
Acrobat 3 or higher. IF YOU HAVE ACROBAT READER 5.0, YOU SHOULD DOWNLOAD
AND INSTALL THE LATEST UPDATE WHICH CORRECTS PROBLEMS WITH OS X AND WINDOWS
XP.
A properly installed, recent copy of Adobe Acrobat reader
should install a plug-in within your browser application and these
links should work
automatically. If you've installed the reader and when you click on the
link, you still get a screen of random symbols, right-click (windows)
or click and hold (Mac) until the pop-up menu appears and choose "Save
link As..." from the list that appears. Choose Save Link as Source, and
name the file something that ends in .pdf if it doesn't happen automatically.
Then start Acrobat reader, and choose Open from the File menu. You should
then be able to open the file.
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