Grant Proposal
PROPOSAL SUMMARY
The organizational background
is the UTeach program at the University of Texas at Austin. In
this program inquiry based learning is stressed as highly important
to students’ learning. With that in mind the proposal purpose
is to have a classroom with more inquiry based learning for mathematics.
The purpose of this project
is to help high school students understand mathematics better.
Many times students do not know how to relate the mathematics they learn
in the classroom to the math they experience in the outside world.
Many students will even come up with their own math rather than relating
it back to the classroom math, because they find it easier. The
objective through this project is to break down this barrier between
the two. It is also the purpose to change the students’
perspectives of mathematics.
The project will be given
in the fifth six weeks of Algebra I students. The project has
been designed to adhere to those TEKS and fit into one six week period.
The results that would be expected are for test scores to go up on
the end of course exam for algebra I, and improving overall quality
of the students’ mathematical education. Also for the students
to come out of the six weeks with a significantly higher understand
of quadratics. On the bigger picture we want to help students
rekindle an interest in mathematics. In several schools in the
surround area, students are low performing. With this in mind,
we want to help students in these types of schools to rekindle their
interest in mathematics, along with giving them a better understanding
of the material presented.
DESCRIPTION
In high schools throughout
Austin we are faced with the problem of low performing students in mathematics
because of a low level of interest among students, which can be in great
part attributed to a perceived lack of relevance of math to the world
they live in. By teaching Algebra students about quadratic functions
through explorations students will see how math really does relate their
lives. This, as well as the fact that students will in part direct
their learning in this unit, will increase students’ interest
in math which will carry on into subsequent years and math classes.
The quadratic function will first be introduced in such a way that students
do not even realize they are doing math in the traditional sense they
are accustomed to. Students will explore projectile motion initially
through videos as well as activities in the classroom. Students
will experiment with projectile motion of their own creating, measuring
position and time and plotting these points. By seeing this as
a function of position and time, they can make a graph of the motion.
The graph will be quadratic and students will start to see properties
of this graph before they know it is “quadratic”.
Students will also use the graphs and information they have, from the
projectile motion activities they have done, to come up with quadratic
functions on their own, even before the teacher introduces a basic quadratic
function. The main idea of the unit is to put quadratic functions
and equations into a context the students can visualize and/or relate
to. This will be carried out throughout each topic covered.
Activities with projectile motion will be revisited and revised to explore
effects of changing different coefficients of the quadratic equation.
Again, students will carry out the activities first and draw their own
conclusions based on what they have seen happen. This will have
a huge impact on what the students retain a few months down the road.
Research shows that students retain knowledge acquired in a hands-on
approach better than when information is simply given to them and they
try to memorize it because they can remember the experience and draw
on it. Technology will also be an integral part of the quadratics
unit. Once initial explorations have been carried out, students
will use graphing calculators to further look at graphs of quadratic
functions as well as to solve quadratic equations. Computers and
the internet will also be used for students to do research on other
quadratics in the real world, as well as to use various applets about
completing the square as well as how lenses work. Students will
also do an exploration activity in which they construct a large scale
parabola only given the materials: a meter stick, stakes, and yarn.
The idea is to construct a parabola using the directrix and focus. Students
will complete a project focusing on one real world application of a
parabola. The three
authors of this unit will be graduates of the UTeach program in the
College of Natural Sciences at The University of Texas as of August
2007 and as such have done extensive work both in teaching and learning
teaching methods and how people learn best. Also, as young adults,
all the authors have experienced high school algebra themselves within
the last decade. The
only foreseeable problem is that because of the students’ unfamiliarity
with learning through exploration, initially lessons might take longer
than anticipated. Teachers will need to be patient to overcome
this and wait for the students to come to conclusions rather than succumb
to their urge to tell students what the teacher wants them to discover.
RATIONALE
According to AISD:
Making the Grade in the High Stakes World of Testing and Accountability
Facts and Issues, Part 1 published in February 2005 numerous Austin
ISD high schools have “failed to make adequate yearly progress
(AYP) under the No Child Left Behind Act” in math participation.
This publication also states that “AISD still trials the state
graduation rate by 5.4 percentage points – 78.8% versus 84.2 for
the state”. Some
of the possible reasons for this include students’ lack of interest
in the subject and possibly their lack of understanding of the material
being taught. Currently Austin ISD provides IPGs (planning guides)
which list the TEKS needed to be learned and when they should be taught,
but not how it should be taught to the students. In
this project Algebra 1 students will work to relate real world situations
to quadratic equations. The project will present them with such
things as sports, architecture, satellites, and other every day things
and help them find the relationship of these objects with quadratics.
It will provide an alternative method of learning this material and
will also show the students how to research and explore topics of interest
on their own. POTENTIAL IMPACT
The main goal of this
project is to improve students’ knowledge and understanding of
math topics, specifically quadratics. Hopefully it will also improve
their project in the No Child Left Behind Act and graduation rates in
Austin ISD. Through
this project students will greatly improve their understanding of quadratics.
Students discover where quadratics exist outside of textbooks and worksheets.
They will also discover how to apply quadratics to explain a real life
object or event. Not
only will this project help students become more interested in math
but in inquiry and research in general. The inquiry based lessons
and projects will help the students learn to guide their own learning;
teaching them how to do research and learning on their own.
This project
will currently benefit all Algebra 1 students at one high school in
Austin ISD. In following years this project can be implemented
in all Algebra 1 classes across the school district.
EVALUATION PLAN
After a implanting the
project, we can go back and look at our school’s drop out rates.
We can also look at our classrooms, as opposed to the whole and compare
it to the drop out rates. As for the reasons this happens such
as not understand or not interested can be measured by different assessments.
For not understand we have an assessment of the Muddies point, where
students misconnections can helped be cleared up. The students learning
will be evaluated to decide how much progress has been made. During
each week there will be assessments of different types of learning.
Each week during the benchmark lessons, there will be an index card
handed out and students can write down ideas for quadratics in the real
world. Then when picking a topic for the project the students
will have already been brainstorming ideas and they will have ideas
to draw from. The final assessment of our project is going to be
a presentation by the students. It will be their choice of their own
quadratic in the world. The students will be able to be in groups
of 3-4. The presentation part will contain a picture of their
quadratic along with the formula they developed for it. It should
also contain an explanation of why they picked this quadratic and how
they developed the formula. Along with this to make sure the students
are making progress toward their presentation we want the students to
turn in material in the weeks before the presentation is due. Such
as a paper describing what quadratics they are thinking about choosing.
Once they do get this, we also want a graph with the different
characteristics labeled. This will be mainly to make sure they
are making process on their presentations and not waiting until the
night before to try and do it all. There will be
a webpage of each groups work over their project. Each group will
have their own page to which they can post pictures, supporting documentation,
and their work. The web pages will contain all the work they put
into the project.
PROJECT CALENDAR
|
Algebra I: 5th Six Weeks |
|
|
|
|
|
|
|
|
|
|
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
|
Introduction of Polynomials; what
is and what isn't? |
Properties of Polynomials(add,
subtract, simplify |
Multipying polynomials |
finish manipulating polynomials
- introduce quadratics (real world - motion) |
introduce quadratic function -
what the equation and graph look like |
assessments |
Interest knowledge/skills checklist:
a checklist of topics covered in the course |
|
|
|
|
|
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
|
Investigate and predict the effects
of changes in c on the graph y=ax^2+c |
Investigate and predict the effects
of changes in a on the graph y=ax^2+c |
different parts of the graph; what
they mean - QUIZ |
table and being able to make a
graph |
Solving equations:factoring |
assessments |
|
|
Memory Matrix: a two-dimensional
diagram to show relationships |
|
|
|
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
|
more factoring |
completing the square |
completing the square |
quadratic equation |
quadratic equation:roots |
assessments |
Documented Problem Solving: prompts
students to keep track of the steps they take |
|
Documented Problem Solving |
|
Documented Problem Solving |
|
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
|
Choosing best method of solving
- how to decide |
QUIZ(solving quadratics) - Properties
of Parabola/real world applications |
Lenses / focus (computer applet) |
extrapolating/realistic domain |
Introduce project |
assessments |
Categorizing Grid: sorting terms/problems
into the correct categories on the grid |
Problem Recognition Tasks:
presents students with problems and students must identify type |
|
Concept Map: diagram showing connections
students make between concepts |
Project Prospectus: a brief, structured
outline of the project |
|
Monday |
Tuesday |
Wednesday |
Thursday |
Friday |
|
work on project |
work on project |
work on project |
Final Assessment (Presentations) |
Final Assessment (presentations) |
BUDGET
Item |
Unit Cost |
Number of Units |
Total Cost |
Computers with Internet Access
(in-kind) |
$1,000 |
30 |
$30,000 |
Graphing Calculators |
$90 |
30 |
$2,700 |
Alphabet and Number Magnets |
$10 |
5 |
$50 |
|
|
|
$32,750 |
|