The AMATYC TiMESSpring 2001
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Chair: Jerry
Kissick Portland
Community College |
Editor: Renae
Weber Treasure Valley C.C. |
In this Issue
by Jerry Kissick
The TiME committee has been
busy working on the issue of equal access to technology for all students. The final result of our discussions was a
motion to the AMATYC board at their spring meeting to modify our current
position paper dealing with the instructional uses of technology by adding an
additional bullet to the position paper.
The board approved the additional bullet during the meeting. The statement is:
Students should have
access to calculators and computers to facilitate learning with
technology. Whenever possible,
mathematics departments should endeavor to provide access to the technology
both in the college and at home.
Since the publication of our
last newsletter, our newsletter editor Joyce Oster has been forced to resign as
newsletter editor because of her increased work load associated with doing
on-line courses. I wish to express my
thanks to Joyce for all she did to help get the newsletter put together during
the last year and a half. We have been
fortunate to find Renae Weber of Treasure Valley Community College in Ontario,
OR who has agreed to help with putting this newsletter together. I am very thankful to Renae for agreeing to
do this work.
I also want to thank the
people who are continuing to contribute articles for our newsletter. In this issue are articles from Brian Smith
summarizing the results of the session from the AMS/MAA conference dealing with
Innovative Uses of the World Wide Web in Teaching Mathematics and a second article from Wayne Mackey about
Uniform Standards for Evaluating Student Learning.
The process of asking for
volunteers at the annual conference is working out well. Since we are a paperless newsletter, length
is not a problem, so anyone wishing to contribute a technology related article,
report on a technology event/workshop, etc attended, or announce an upcoming
technology event/workshop, etc please e–mail your information to myself at
jkissick@pcc.edu
The MATHEDCC internet discussion
list is continuing to function well and there have not been any problems since
Brian Smith re-hosted the list to the Math Forum.
During the Chicago
conference, the AMATYC board established a new Distance Learning
Committee. Karen Estes agreed to be the
TiME committee representative to this committee. Since that time she has experience an overwhelming teaching load
and has asked to be relieved of this duty.
We are currently looking for a volunteer to act as our committee
representative. As far as I know, the
only responsibility for this position is to attend their committee meetings at
the annual conference and report items of interest to the TiME committee. If you have an interest in distance learning
and would be willing to attend their meetings, please contact me and I will
forward your name to AMATYC as our committee representative.
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Uniform Standards for Evaluating Student Learning
by Wayne F. Mackey
Director, Math Resource & Tutoring Center
University of Arkansas, Fayetteville
wmackey@mail.uark.edu
http://MRTC.uark.edu
Despite much effort, many
new textbooks, new standards from AMATYC, NCTM, AMS and the MAA, as well as new
educational techniques, very little progress has been made in bringing American
mathematics students to higher rankings in relation to other countries. Some things that I believe very firmly after
being involved for over thirty years are as follows.
i)
Most teachers are doing
an excellent job of teaching, perhaps better than ever before.
ii)
Students are just as
bright as ever.
iii)
Textbooks are just as
good as they ever were and probably better.
iv)
Students are learning
just as much as ever before.
The last assertion might
need a bit of exposition in light of the opening paragraph. I believe that students at the high school
and up levels have always been bright enough in general to arrange their
schedules and focus their efforts to achieve their goals as efficiently as
possible. I believe they still do. The only conclusion I can come to is that
students today can achieve their goals with less effort and less time put into
learning. In other words, a high school
student can graduate most efficiently by learning less now than the parents or
grandparents did. Even though there are
more opportunities for learning and understanding now, less of it is
required. Students are still learning
just as much as they must to achieve their goals but no more. Look at these figures.
Consider the percentage of
entering college freshmen that say they averaged studying six or more hours per
week during their last year in high school.
1987 - 47.0% Now
- 36.0%
Consider the percentage of
entering college freshmen that had an A average during their last year in high
school.
1968 - 17.6% Now
- 42.9%
Consider the percentage of
entering college freshmen that had a C average during their last year in high
school.
1968 - 23.1% Now
- 6.6%
The above figures were taken
from http://www.gseis.ucla.edu/heri/heri.html.
What about that first year
in college? Do things change
there? We can consider two students
from different colleges who both got grades of A in college algebra. What does this tell society and us? In many colleges grades are sometimes not
intended to reflect the amount of mathematical knowledge, skill, or understanding
gained. Instead the grade rates the
amount of work done (or at least handed in), the amount of time spent, or
various other even more nebulous criteria such as how hard the student is
trying or how badly the grade is needed by the student.
Even if both grades are
based exclusively on tests that are well designed to determine the mathematics
learned, the grades can still have different meanings. In an orientation session for new teaching
assistants I did a very quick experiment.
I gave these new graduate students a typical math test problem along
with several typical incorrect student answers, asking them to assign partial
credit out of 5 points for each correct answer.
The test problem was to find
the equation of the directrix of a parabola.
The correct answer was x = 4 and these were the incorrect student answers.
4
y = 4
x = 8/2
x = 8
Those inexperienced teaching
assistants gave the incorrect or incomplete answers partial credit ranging form
0 points to 5 points on each one. Now
imagine a test with 25 problems. If one
such test paper is graded by 50 different teachers independently, the
probability that any two scores would be the same approaches zero.
In an attempt to rectify
this situation or at least bring it to light, more and more "standardized
tests" are given at various points along the educational road. President Bush has proposed giving these
tests every year but hasn't said anything about what should happen to students
who fail the tests. In California next
year it is proposed that students who don't pass standardized tests given in
the senior year not be allowed to graduate.
There is a great hue and cry in protest with many California teachers
quite forthrightly saying that very few high school students will graduate if
this policy is enforced. It is obvious
that this approach is not going to help at all. Students who haven't learned enough in 12 years to pass that test
are not going to learn anything by being told they can't graduate.
Fortunately, with the advent
of modern technology (computers, not calculators), we can actually begin to try
realistic approaches to solving the problem.
It is possible now to have unique but equivalent tests for each student
at each level and over each topic.
Furthermore the tests can be graded according to strictly uniform
standards for partial and full credit on each question or problem. Obviously the typical standardized test with
all multiple-choice questions has many difficulties so these can all be
eliminated or at least reduced in number and importance. Since all tests are different but equivalent
it is not necessary that all students take a test at the same time so students
can proceed at their own pace rather than having to wait for the rest of the
class to catch up with them or having to move ahead with the class without any
understanding of the previous lesson. A
student who fails a test can simply repeat the lesson or try a different
approach without falling behind a class.
If this system were in place
two students who had gone through school with the same grades could be safely
assumed to be at the same level of knowledge, understanding, and skills even if
they attended different schools with different teachers. This is of course a pipe dream but we could
begin implementing such a system in the first two years of college anytime.
*****************************************************************************************************************************
Brian
Smith
For the second consecutive year, the CCIME (Committee on Computers
in Mathematics Education) of the Mathematical Association of America organized
a contributed paper session titled Innovative
Uses of the World Wide Web in Teaching Mathematics. The session was
presented at the Joint Mathematics Meetings in New Orleans in January 2001, and
was organized by Marcelle Bessman of Jacksonville University, Florida, and
Brian Smith of McGill University in Montreal.
With approximately thirty contributions, this session was
well attended and proved to be a great success. The quality and variety of the presentations was outstanding and
the sessions, spread over three days, proved to be a great source of innovative
and exciting new ideas for anyone currently teaching, or planning to teach,
courses involving web-based materials.
While the sessions were not of a commercial nature,
nevertheless several of the presentations dealt with applications of popular
software packages, and participants were able to see how various types of
software could be used effectively to present and manipulate mathematical
material on the web. Among the
software based presentations were Interactive
Web-Based Materials for Calculus Using LiveMath by Brian Gill of Seattle
Pacific University, WebCT Quizzes in
Precalculus and Calculus by Jeffrey Hirst of Appalachian State University, Group Writing Using Blackboard CourseInfo by
Kris Green of St. John Fisher College,
Online Mathematics Courses at the
Mathsoft Learning Site by William Mueller of Mathsoft Inc., and Visual Calculus – a Report, by Lawrence Husch
of the University of Tennessee, Knoxville.
Other presentations covered many aspects of teaching
mathematics using World Wide Web resources.
Topics included the use of Applets, Web-based simulations, Activities
from the Mathwright Library and Project WELCOME, a National Library of
Web-based interactive manipulatives, Statistical data on the Internet, using
Java, animated GIFs and Shockwave movies, and on and on it goes!
The presentation Stuck
in Traffic in Chicago: A WWW Project by Elyn Rykken and Maureen Carroll
demonstrated a very original application employing Chicago’s on-line traffic
information system. Students were asked to help solve a crime by estimating the
time required by a suspect to commute from one district of the city to another. Another very creative presentation was
entitled Learning Trigonometry through a
Virtual Mathematics Learning System – Infomath. This talk featured dazzling graphics and a little help from the
Pokemon character Pikachu! The
presenters, Yuan Yuan and Ming-Jang Chen
were visiting professors from Taiwan.
Overall the session was very
popular and, though the attendance waxed and waned throughout the fairly
lengthy time-blocks, it was gratifying to see that both the early morning and
late afternoon sessions maintained a good turnout. Owing to the popularity of the session it has already been
approved for next year for the San Diego Joint Mathematics Meetings, January
6-9, 2002. If you are planning to
attend the meetings look out for some lively and informative talks at the third
MAA contributed paper session on Innovative Uses of the World Wide Web