Bemidji State University
M1013/ MATHEMATICAL FOUNDATIONS FOR
MIDDLE SCHOOL TEACHERS (4 credits)
Spring 2015
MWF,
2-3 pm
Instructor: Dr.
Glen Richgels
Email: -- grichgels@bemidjistate.edu
Office Phone:
755- 2824
Professional Education
Department Mission Statement:
ÒThe Bemidji State University
Professional Education program is preparing today's teachers for tomorrow,
through effective, inquisitive, and reflective practice. Our students are
proficient, self-reliant, and thoughtful practitioners, developed in a viable
and growing program, who can teach effectively in various settings with diverse
learners."
Course Description
1013
MATHEMATICS FOR ELEMENTARY SCHOOL TEACHERS II (3 credits) This
course meets the BOT introduction to higher mathematics competencies. These
topics include geometry, discrete mathematics, probability, and statistics.
This is the second of two mathematics courses providing the background for
teaching in the elementary school. Emphasizes the use of mathematics
manipulatives for modeling the basic concepts.
Prerequisites
MATH 1011 or consent of instructor.
Required Text
Mathematics
for Elementary Teachers: A Contemporary Approach (2011) by G. L. Musser, W. F.
Burger, & B. E. Peterson; John Wiley & Sons (pub)
Resources: |
Minnesota K-12 Mathematics Framework (1998) by W.
Linder-Scholer. SciMathMN (pub).
Number Sense Activities section. Principles and Standards for School Mathematics (2000). NCTM;
Reston, VA. |
Board of
Teaching Standards
8710.3200 Teachers of
Elementary Education K-6
Department of Mathematics and Computer Science
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8710.3200 Teachers of
Elementary Education K-6 |
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In this
syllabus you will find the word TEACH. This will mean to:
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Standard |
K/A |
Activity |
Assessment |
H. A teacher of
children in kindergarten through grade 6 must demonstrate knowledge of
fundamental concepts of mathematics and the connections between them. The
teacher must know and apply; |
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(2) concepts and techniques of discrete
mathematics and how to use them to solve problems from areas including graph
theory, combinatorics, and recursion and know how to: |
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(a) help students investigate situations that
involve counting finite sets, calculating probabilities, |
KA |
Chapter
11 HW
11.1, 11.2 |
Students
will demonstrate their ability to count finite sets with the counting
principle, table diagram, or tree diagram as they build sample space models
for events on homework, in-class work, and on questions on Test 3. Students
will demonstrate their ability to calculate probabilities for simple and
compound events on homework, in-class work, and on questions on Test 3. |
tracing paths in network graphs, |
KA |
Euler
circuits and paths |
Students
will demonstrate the understanding of tracing of network graphs by classifying
the graphs as Euler circuits, Euler paths, or neither on homework, in-class
work, and on questions on Test 5. |
and analyzing iterative procedures; and |
KA |
Arithmetic
and geometric sequences |
Students
will use interative procedures to find elements of arithmetic, geometric, and
other sequences on homework, in-class work, and on questions on Test 1. Students
will analyze arithmetic, geometric, and other sequences to generate iterative
procedures or rules for the sequences on homework, in-class work, and on
questions on Test 1. |
(b)
apply these ideas and methods in settings as diverse as the mathematics of
finance, population dynamics, and optimal planning; |
KA |
Finance
– compound interest Geometric
growth of populations Snowplow
routes, delivery routes, traveling salesman – nearest neighbor |
Students
will apply iterative procedures in diverse settings of mathematics such as
finance, to calculate compound interest, population dynamics to find
populations from one generation to the next, or in optimal planning for
snowplow routes, delivery routes, and guided tours on homework, in-class
work, or on questions on Test 1 and 5. |
(3) concepts of numerical literacy: |
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(d) understand the relationships of integers
and their properties that can be explored and generalized to other
mathematical domains; |
KA |
Operations
and properties of integers. Evens/Odds in probability. Regular
polygon investigation. Jordan
Curve Theorem |
Students
will demonstrate that they understand the
relationships of integers and their properties that can be explored and
generalized to other mathematical domains such as probability, graph theory,
and geometry on homework and in-class work. |
(4) concepts of space and shape: |
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(a) understand the properties and relationships
of geometric figures; |
KA |
Chapter
12 Van
Hiele levels Regulare
polygon investigation |
Students
will demonstrate and
understanding of the relationships of geometric figures when they construct a
Venn diagram for seven classifications of triangles or a Venn diagram for nine
classifications of quadrilaterals. |
(b) understand geometry and measurement from
both abstract and concrete perspectives and identify real world applications;
and |
KA |
Chapter
13 Perimeter,
area, and volume |
Students
will design an original abstract measurement system and be able to list
positive aspects of their system. Students
will construct a table for eight measurement concepts, English units, and
System International, metric, units. Students
will be able to give examples of where the different units for measurement
concepts are used in real world applications. Students
will use the relationship between volume, capacity, and mass in the SI
(metric) system in homework and in-class discussions and on test 4. |
(c) know how to use geometric learning tools
such as geoboards, compass and straight edge, ruler and protractor, patty
paper, reflection tools, spheres, and platonic solids; |
KA |
Chapter
9,13 Geoboards
– perimeter, area, ratios, venn diagrams Chapter
14 Constructions
– compass and straight edge, patty paper, MIRA Surface
area and volume of hemi-spheres and spheres Tiling,
regular polygons, platonic solids |
Students
will demonstrate how to use geoboards to illustrate perimeter, area, ratios
and Venn diagrams. Students
will be able to perform standard constructions such as angle bisector,
segment bisector, and perpendicular bisector using straight edge and compass,
MIRA, and patty paper on homework and in-class work or on Test 5. Students
will find the surface area and volume of a sphere, cylinder, cone, prism, and
pyramid on homework, in-class work, or on questions on Test 4. Students
will identify regular and semi-regular tilings of a plane and the platonic
solids formed from regular polygons on homework, in-class work or on Test 3. |
(5) data investigations: |
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(a) use a variety of conceptual and procedural
tools for collecting, organizing, and reasoning about data; |
KA |
Chapter
10 Tally
marks, stem and leaf plot, box and whisker plot, conclusions Raisin
Activity |
Students
will collect data on the heights of individuals in cm, organize the data
using tally marks and stem and leaf diagrams, and box plots. Students will
draw at least one conclusion from the constructed box plot and give it orally
when asked in class. |
(b)
apply numerical and graphical techniques for representing and summarizing
data; |
KA |
Central
Tendancy: Mean, median, mode Max,
min, range, IQR, quartiles, outlier Dispersion:
range, standard deviation Bar
charts, histograms, pie charts, line graphs, pictographs |
For
a given set of data, students will organize it and display the data using
stem and leaf plots, histogram, pie chart, or appropriate graphical
technique. The students will find the measures of center, mean, median, mode,
measures of dispersion and variation maximum, minimum, range, inter-quartile
range (IQR), quartiles and outliers for given data sets on homework, in-class
work, and on questions on Test 2. |
(c) interpret and draw inferences from data and
make decisions in a wide range of applied problem situations; and |
KA |
Use
measures of dispersion to identify typical and atypical data |
Students
will interpret and draw inferences from data and make decisions in a wide
range of applied problem situations on homework, in-class work, or on
questions on Test 2. |
(d)
help students understand quantitative and qualitative approaches to answering
questions and |
KA |
Analysis
of qualitative and quantitative data |
Students
will choose quantitative or
qualitative approaches to answer data questions posed in class. |
develop studentsÕ abilities to communicate
mathematically; |
KA |
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Students
will receive feedback on their notation and mathematical symbolism as they
communicate between themselves or to the teacher on homework, in-class work,
and on questions on all tests. |
(6) concepts of randomness and uncertainty: |
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(a) probability as a way of describing chance
in simple and compound events; and |
KA |
Define
probability of events and calculate probability of simple and compound events |
Students
will model sample spaces for simple and compound events and will calculate
the desired probabilities from these sample spaces on homework, in-class
work, and on questions on Test 2. |
(b) the role of randomness and sampling in
experimental studies; |
KA |
Sampling
as a representation of a population |
Students
will be able to describe how to gather data from a large population to answer
questions in experimental studies on homework and in-class work. |
(7) mathematical processes: |
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(b) understand the connections among
mathematical concepts and procedures, as well as their application to the
real world; |
KA |
Chapter
12 n-gons
and tiling |
Students
will construct a table to investigate the connections between mathematical
concepts procedures of regular polygons in order to answer questions relating
to regular, semi-regular, and non-regular tiling of planar surfaces on
homework and in-class work. |
(c) understand the relationship between
mathematics and other fields; |
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Data
and probability |
Students
will describe how to use data and probability to answer questions of interest
in other academic areas and applied areas in real life in class discussion. |
Technology Requirements and Expectations
Students may use internet browsers to
access information and answer questions posed in class. Students may use
graphing calculators, GeometerÕs Sketchpad, or data programs such as Excel,
Tinkerplots, Fathom 2, or Minitab as needed. Written assignments for class will
be composed using a word processor such as Microsoft Word.
Teaching Methodology
PolyaÕs
problem solving steps
1.
Understand
the problem
Lesson Sequencing
Intuitions
Þ Concrete ó Semi-Concrete ó Abstract
GlenÕs
Teaching/Learning Principles
1.
Teach the way
students learn
2.
Use group
work, heterogeneous, 3-4, change monthly
3.
Communication
student ó student
4.
Communication
teacher ó student
5.
Multiple
solution paths
6.
Use
contextual settings / problem solving
7.
Assessment
University Policies
and Procedures
http://www.bemidjistate.edu/students/handbook/policies/
Academic
Integrity
BSU
students are expected to practice the highest standards of ethics, honesty and integrity
in all of their academic work. Any form of academic dishonesty (e.g.,
plagiarism, cheating and misrepresentation) may result in disciplinary action.
Possible disciplinary actions may include failure for part of all of a course
as well as suspension from the University.
Students with
Special Needs
Upon
request this document can be made available in alternate formats. Please
contact Kathi Hagen at Disabilities Services at (218) 755-3883 for assistance
or the AUC Office at 262-6753 or (800) 369-4970.
Student Rights
and Responsibilities
Student
Code of Ethics
http://www.bemidjistate.edu/academics/catalog/10catalog/GradCatalog/Frontpages/sectionIV/rights.html
Student
Academic Rights and Responsibilities
http://www.bemidjistate.edu/students/handbook/policies/academic_integrity/rights_responsibilities.cfm
Instructor
Rights and Responsibilities
- I work with all students and expect success
from all students. It is my expectation for those students who attend class
regularly and complete assignments that they will earn an A or B.
- I am
available for help whenever I am in my office. I encourage students to do
homework at a table outside of my office so that I can help them whenever they
have difficulties. Help is also available through email and at my home, if
prior arrangements have been made.
- I will try
to give grade status reports at least every three weeks.
Course Grades
A: 100
– 90% B: 89 – 80% C: 79 – 70% D: 69 – 60%
Course Policies
Attendance: Daily
attendance is expected
Participation: Class participation and group work is expected
Tentative
Course Calendar
Week 1 |
Day 1 |
Syllabus,
Assignments, Integer rules |
Day 2 |
Integer
rules; add, subtract, multiply; chip trading |
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Day 3 |
Number
systems to rational numbers/decimals |
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Week 2 |
Day 4 |
Decimals
< - > fractions base 10, n terminating |
Day 5 |
Fractions
-> decimals repeating |
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Day 6 |
Fractions
-> decimals repeating |
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Week 3 |
Day 7 |
Repeating
decimals -> fractions; .999 repeating = ? |
Day 8 |
Decimals
repeating, terminating, neither <-> rational numbers, irrational
numbers |
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Day 9 |
Test
1 |
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Week 4 |
Day 10 |
Data
collection heights; why do we collect data; what is typical data |
Day 11 |
Stem
and leaf plots, line plots; mean, median, mode |
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Day 12 |
Box
and whisker plots |
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Week 5 |
Day 13 |
Box
and whisker plots |
Day 14 |
Intuitive
likely-hood statements |
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Day 15 |
Quantify
probability; list, table, tree sample spaces; success counting, total
counting |
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Week 6 |
Day 16 |
Probability
assignments from experiments |
Day 17 |
Probability
conditional |
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Day 18 |
Test
2 |
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Week 7 |
Day 19 |
Geometry
definitions, parallel lines |
Day 20 |
AmberÕs
parallel lines activity |
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Day 21 |
Regular
polygon properties activity |
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Week 8 |
Day 22 |
Regular
and semi-regular tessellation of plane |
Day 23 |
Omoinoes
activity: number, perimeter, area, box and cube templates |
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Day 24 |
Jordan
simple closed curve theorm; game board, three utility problems |
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Week 9 |
Day 25 |
Take
a trip geometric perspective activities |
Day 26 |
3D
views; top, side, right perspectives |
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Day 27 |
Test
3 |
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Week 10 |
Day 28 |
Measurement
island activity |
Day 29 |
Measurement
concepts, SI small and big triangles |
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Day 30 |
Unit
conversions |
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Week 11 |
Day 31 |
Geoboard
activities, perimeter, area |
Day 32 |
Perimeter
and area formulas |
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Day 33 |
Conservation
of volume; 3D solids organization activity |
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Week 12 |
Day 34 |
Volume and surface area problems; prisms, pyramids,
cylinders, cones, sphere |
Day 35 |
Volume and surface area problems; prisms, pyramids,
cylinders, cones, sphere |
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Day 36 |
Test 4 |
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Week 13 |
Day 37 |
Constructions
ruler and compass |
Day 38 |
Constructions
Mira and patty paper; Mira activities |
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Day 39 |
Congruent triangles tool kit and activities |
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Week 14 |
Day 40 |
Similar
triangles took kit and activities |
Day 41 |
Transformational
geometry flips, slides, turns, similitudes |
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Day 42 |
Transformational
geometry flips, slides, turns, similitudes |
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Week 15 |
Day 43 |
Topology,
euler circuits |
Day 44 |
Test
5 |
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Day 45 |
Final
Exam Review |
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Day 46 |
Final
Exam |