AFNORTH INTERNATIONAL
MIDDLE/HIGH SCHOOL
Math 8

Course
Syllabus
Mr. Zuber
SY 2004-2005
COURSE TITLE: MATH
8
TEACHER: Lloyd H. Zuber
E-MAIL: lloyd_zuber@eu.odedea.edu
COURSE
DESCRIPTION:
The grade 8
math curriculum encourages students to investigate mathematical concepts
through exploratory, activity-based learning. The grade 8 math course is
designed to present topics in computation, including operations with whole
numbers, decimals and fractions, integers, rational numbers, and real numbers.
Number theory facts are employed to solve problems with fractions, ratios, and
percents. Students will be introduced to solving one- and two-step equations
and inequalities: measuring angles, perimeters, volumes and area using metric
and customary units: graphing to include the coordinate plane: and estimating
conclusions through the use of probability and statistics. The use of hands-on individual and
cooperative activities and concrete models makes each concept more
understandable and memorable. Instructional activities will involve students in
a step-by-step process in performing computations mentally, with paper and
pencil, and with calculators or computers; in using proper instruments for
geometric constructions and measurement; and in applying mathematical concepts
to everyday situations. Problem-solving strategies will teach students to read,
analyze, plan, solve and check multi-step problems.
COURSE
STANDARDS:
The Standards
and expectancies for Pre-Algebra 8 place emphasis on core concepts of algebraic
and geometric reasoning. Students will
also be involved in investigations, and demonstrate understanding in the areas
of data analysis, the mathematics of chance, fractal geometry and chaos theory,
and functions. A strong emphasis on mathematical concepts and understanding
also supports the development of problem solving. While learning mathematics,
students will be actively engaged, using tools and appropriate technologies
such as calculators and computers. Students should be encouraged to explain
summarize, analyze, design and evaluate mathematical ideas in writing and
discussion for the following set of standards.
Students should show proficiency in being
able to:
· Solve multi-step problems
using mathematical operations with real numbers
· Use proportional reasoning
to solve real-life problems involving probability, geometric attributes, and
statistics
· Select appropriate
problem-solving strategies such as guess and check, solve a simpler problem,
find patterns, work backwards, model, or use technology to solve problems
· Evaluate alternative problem
solving techniques to choose effective approaches to particular situations.
· Solve realistic problems
having consumer and career applications
· Formulate problems to be
solved based on the student's own interests
· Formulate questions from
given sets of graphical, written, or oral information
· Compare and contrast
different solutions to the same problem
· use divergent thinking to
develop and defend possible solutions to open-ended questions
· Work cooperatively to solve
non-routine problems
Students should show proficiency in being
able to:
· Function effectively as a
contributor during group activities
· Express, discuss, and
justify problem solving strategies and processes in oral and written form
· Use calculators or
appropriate technology to store, retrieve, and communicate information
· Write and discuss ideas to
interpret and formulate solutions, including making predictions and conjectures
· Explain the mathematical
concepts attached to the symbols used in middle school mathematics
· Use mathematical vocabulary
purposefully in communicating concepts and interpret information described in
graphs or charts
· Formulate written problems
that reflect situations encountered in real life
· Model mathematical
situations with concrete objects including transformations
Students should show proficiency in being
able to:
· Develop and apply appropriate
deductive or inductive reasoning strategies to solve problems
· Draw appropriate diagrams to
aid in the solution of problems in 3-dimensional space
· Draw representations of
3-dimensional objects rotated a certain number of degrees in a given direction
if shown the pictorial representation of the 3-dimensional object
· Write logical arguments to
mathematically illustrate why solutions do not work
· Reason from counter-examples
· Develop dichotomous
classification systems which can be used in other subject areas
· Solve logic problems in
3-dimensions
· Test mathematical
conjectures
· Collect data, represent it
graphically, interpret the information presented, and validate the conclusions
· Generate sets of specific
instances, organize those instances, and identify patterns within the sets
Students should show proficiency by being
able to:
· Categorize and graph
mathematics used in newspapers or periodicals such as stock market activity
over a specified time
· Collect, organize, graph,
and interpret class data obtained from other subject areas
· Use various resources to
collect, plot, and display information from our own and other countries such as
death rate and gross national product
· Write poems or journal
entries about the relationship between mathematics and everyday life
· Recognize the relationships
between timelines and number lines by plotting events from students' personal
lives on timelines
· Use road atlases and
calculators to determine distances between cities and compute costs of travel
· Find and record patterns and
symmetry in nature such as honeycombs, snowflakes, leaves, spider webs, etc and
identify numerical patterns in musical compositions
· Gather information on past
local, regional or national weather and make predictions about future weather
conditions
· Calculate the cost of
utilities after finding the cost of kilowatt hours of electricity, cubic meters
of natural gas, liters of gasoline, and minutes of long distance telephone
calls
· Connect the concepts of
simplifying arithmetic fractions and simplifying algebraic fractions
Students should show proficiency in being
able to:
· Solve problems involving the
use of the four basic operations with rational numbers
· Solve equations and
proportions
· Demonstrate the relationship
between percents and percentages
· Solve problems which require
the use of scientific notation
· Solve problems which involve
the percent increase or decrease
· Estimate the solutions of
problems involving real numbers
· Plot x and y values for
rules involving addition and subtraction of fractions
· Explain orally or in writing
what happens when two fractions are multiplied
· Construct pie charts from
data sets
· Generate equivalent
expressions of portions of whole numbers in a variety of formats [i.e. 1/5 of
25, 20% of 100, (57)(.10)] and explain why they are equivalent
· NOTE: It is understood that all students will have
access to calculators at all times.
Students should show proficiency in being
able to:
· Use multiple representations
of numbers in problem writing
· Find examples of scientific
research in which whole numbers and decimals are expressed in exponential form
and using scientific notation.
· Illustrate and use the
properties of addition and multiplication to simplify expressions
· Demonstrate the hierarchy of
the real number system with set notation
· Explain the attributes of
prime and composite numbers
· Demonstrate the results of
arithmetic operations on positive and negative integers and write rules to
govern the operations
· Compare and order irrational
numbers on number lines
· Represent irrational numbers
geometrically, such as square roots of non-perfect squares
· Use the relationship among
ratio, percent, and proportion to solve real-world problems
· Express whole numbers in
bases other than 10
· Make generalizations about
the size of fractions as their denominators and/or numerators move toward
specific limits
Students should show proficiency in being
able to:
· Describe the advantages and
disadvantages of using tables of data, graphs, and expressions to describe
functions
· Use observed patterns in
gathered data to generalize to other situations
· Distinguish between
constants and variables in commonly used formulas
· Compose rules in statement
form and translate the written statements to symbolic form
· Construct graphs from tables
of values
· Determine the relationship
between parts of geometric figures by analyzing proportional data gathered from
repeated measurements
· Generalize the process of
predicting the maximum area determined by given perimeters.
· Describe how changing the
value of an independent variable affects the dependent variable in linear
relationships
· Combine concrete objects to
form all possible combinations from sets containing at least 3 objects
Students should show proficiency in being
able to:
· Interpret and analyze
displayed data and make appropriate inferences and predictions
· Choose appropriate scales to
construct graphs, charts, or diagrams for data
· Collect, organize, and
present numerical data in a variety of forms (stem and leaf plots, box and
whiskers, scatterplots, etc.)
· Find the measures of central
tendency of sets of data and describe the statistics
· Use tables of outcomes from
sample spaces to predict the probability of future outcomes and construct area
models to determine expected values of probability problems
· Determine the probability of
a pair of independent or dependent events
· Predict the theoretical
probability of an event occurring after analyzing collected trial data
· Compare collected trial data
and computer simulated results to theoretical probabilities
· Use computer spreadsheet
software to investigate how changes in one or more quantities affects the
measures of central tendency
Student should show proficiency in being
able to:
· Use the Pythagorean
relationship to determine the unknown side in right triangles
· Identify and analyze
fundamental transformations of translations, reflection, and rotations
· Complete constructions using
a compass, straightedge, or reflective device
· Identify and classify the
symmetries of geometric figures
· Use computer programs, such
as Logo or a geometric manipulator, to test conjectures
· Identify objects in the
classroom and in the environment which are proportioned according to the golden
ratio
· Recognize and construct
regular and semi-regular tessellations and write conjectures about regular
polygons which will or will not tessellate a plane either in isolation or
combination
· Use Pick's Theorem in
connection with geoboards to determine formulas for areas of irregular figures
· Determine the slopes of
lines graphed on coordinate planes
· Use concrete objects to
validate theorems
· Solve problems involving
constant and varying rates in relationship to time
Students should show proficiency in being
able to:
· Make and display scale
drawings of objects and determine surface areas and volumes of solids
· Demonstrate the proper use
of a variety of measuring instruments such as rulers, protractors, compasses,
thermometers, scales, balances, etc
· Discuss the amount of error
acceptable in a particular measurement
· Determine the inherent error
in measuring instruments by comparing a variety of measurements made with a
given instrument (i.e., speedometers)
· Write stories which contain
metric and English measurements in problem situations
· Formulate problems involving
constant and varying rates in relationship to time
· Solve elapsed time problems
· Use concrete materials to
demonstrate the effect of holding one variable constant while changing the
value of another variable such as building polyhedra with varying volumes and
constant surface areas
Students should show proficiency in being
able to:
· Evaluate given expressions
requiring the use of accepted order of operation rules
· Graph linear functions on
coordinate planes
· Find the slope of lines
· Develop formal methods for
solving linear equations and inequalities after experimenting with informal
methods
· Solve given problems
algebraically using proportions, formulas, and functions
· Use concrete, numerical, and
graphic models to describe algebraic models for relationships (i. e., perimeter
equals twice the length plus twice the width)
· Use graphing utilities to
generate relationships between two expressions from real world contexts
· Draw transformations on
coordinate systems from given descriptions and vice-versa
· Solve linear equations when
given replacement sets for one variable
· Make predictions of decay
from exponential sequences
AFNORTH International Middle/High School’s CSP
(Continuous School Progress) goal is:
“All students will improve their written communication skills across the curriculum.” The 6 + 1 trait is the model selected to improve school-wide writing in all subject areas. The 6+1 Trait writing framework is a powerful way to learn and use a common language to refer to characteristics of writing as well as establish a common vision of what “strong” writing looks like. Teachers and students will use the 6+1 Trait model to identify areas of strength and weakness as they continue to strive towards continued writing improvement. Success of all students requires that the 6 + 1 Trait become a consistent and integral component of each course taught at AFNORTH International Middle/High School.
Name________________________________ Date______________ Rewrite Problem #_____________ a) Complete
Explanation of what I did wrong on this problem: _________________________________________________________________ B) Detailed
explanation of the correct solution: Be sure to explain your reasoning and what you know about
the underlying concepts. c) Correct
solution to the problem, with all of my work shown.
Lesson 1: Diagnostic Test Lesson 2: Problem solving and rates; Displaying data Lesson 3: Scatter plots Lesson 4: Perimeter, circumference, area, volume Lesson 5: Write and solve equations: Simplify
expressions Lesson 6: Area and perimeter Lesson 7: Samples and percents Lesson 8: Proportions and percents Lesson 9: Percent of change Lesson 10: Exploring probability; Theoretical
probability Lesson 1: Adding Integers Lesson 2: Multiplying and dividing integers Lesson 3: Adding positive and negative fractions Lesson 4: Subtracting positive and negative fractions Lesson 5: Graphing inequalities 1st 1st
quarter notebook 2nd
quarter Notebook Module1:
Amazing feats facts and fiction Module 2: At
the Mall
SEMESTER MODULE LESSONS
COURSE
GRADING AND ASSESSMENT:
Each Semester is split into two quarters. During the quarter, a student will take four or five tests worth 100 points each. Assignments can be expected daily. These will be checked by a 10-point homework quiz based on the assignment. It is required that work be shown on all assignments. All assignments should have a heading in the upper right hand corner consisting of:
Name
Page numbers and Exercise Numbers
Section Number.
Other Quizzes will be given at various times. These will be worth 5 to 20 points.
Grading Scale:
A+ 97 – 100%
A 93 - 96
A- 90 -92
B+ 87 - 89
B 83 - 86
B- 80 - 82
C+ 77 - 79
C 73 – 76
C- 70 - 72
D+ 67 - 69
D 63 - 66
D- 60 - 62
F Below 60%
A notebook is required, and will be picked up each quarter. This notebook should contain all assignments, class notes, and handouts. It is worth 100 points.
The Semester grade consists of the two quarter grades plus a Semester Exam. The Semester Exam equals one half of a quarter grade making it worth 20 percent of the grade.
COURSE EXPECTATIONS/CONSEQUENCES:
It is expected that all students will come to class with a willingness to learn. Classroom time is to be used for learning. Behavior should never interfere with learning. Students are expected to bring all necessary supplies with them. No gum chewing is allowed. No Walkmans or other listening devices are allowed. No sunglasses are allowed. Students need to use the restrooms in between class periods. If a student must use the restroom during class, they will be expected to remain after class for a period of 3 minutes.
TEXTBOOKS:
Middle
Grade Maththematics, Book 3,
McDougal Little
SUPPLIES:
Notebook – 3 ring binder preferred Loose-leaf paper
Graph paper pen or pencils
Ruler – Metric and English calculator*
*A set of graphing calculators will be available for classroom use.
HOMEWORK POLICY:
Assignments
are essential. Very few students can
pass Math 8 without faithfully completing the assignments. Assignments are expected to be turned in on
time. An extension of one day will be
granted if a student is having difficulty with an assignment. Otherwise, late assignments will receive one
point.
MAKE-UP WORK POLICY:
Assignments
not turned in because the student was absent when it was assigned are not
considered late. This applies only to
excused absences. A student will
routinely have an extension of as many days as he was absent. It is expected that tests missed due to
excused absences will be made up within one
week of the absence.
EXTRA HELP:
Please feel free to come see me during seminar period if you feel that you need extra help. I am also available after school by appointment.