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MTH 156 Course Objectives
Use
problem-solving approaches to demonstrate strategies to investigate
similarities among problems throughout the course. The spirit of approach
is to develop more than one way to explain processes of problem solving.
Mathematical understanding is achieved through experiment, discovery,
conjecture, invention and reasoning. This is not a teaching methods course.
1. Mathematical
Reasoning
1.1 Build
new mathematical knowledge through problem solving.
1.2 Recognize
and use connections among mathematical ideas.
1.3 Analyze
and evaluate the mathematical thinking and strategies of others.
1.4 Recognize and apply mathematics in contexts
outside of mathematics.
2.
Functions
2.1 Model problem situations using
representations such as graphs, tables and
equations
to draw
conclusions.
2.2
Investigate how a
change in one variable relates to a change in a second
variable.
2.3 Represent and analyze patterns and
functions using words, tables and graphs.
2.4 Express
mathematical relationships using a variety of function models.
2.5 Identify
and describe situations with constant or varying rates of change and
compare them.
2.6 Use functions to represent, understand and predict quantitative
relationships.
2.7 Relate
and compare different forms of representation for a relationship.
2.8 Construct
graphs to communicate mathematical ideas.
3.
Statistics
3.1 Apply statistical thinking in contexts
outside of mathematics.
3.2 Systematically collect, organize
and interpret data.
3.3 Construct and interpret visual
representations of data including
dot plots, bar
graphs, line graphs, histograms, box plots and stem-and-leaf plots.
3.4 Compute and interpret measures of
central tendency (mean, mode, median).
3.5 Compute and interpret measures of
spread (range, interquartile range,
standard
deviation).
3.6 Compute and interpret measures of
position ( percentiles, 5-number summary).
3.7
3.7 Identify the characteristics of
samples and populations and describe the role of
randomization in
the sampling process.
3.8 Examine visual graphs and
descriptive statistics to determine the validity of
stated
conclusions for a
set of data.
3.9 Make inferences and convincing arguments
based on an analysis of the data.
3.10 Apply concepts of statistics as
strategies in problem solving.
4.
Probability
4.1 Determine experimental probability by conducting experiments,
simulations or
surveys and
recording observations.
4.2 Determine
theoretical probability by determining the number of successful
outcomes out
of the
number of possible outcomes.
4.3 Compare
and contrast theoretical probability of event with experimental
probability.
4.4 Predict the probability of outcomes of
simple and two-stage experiments or
events.
4.5 Draw
a model of the sample space for an event(s) using a tree diagram.
4.6 Calculate
the probabilities for complementary, independent and mutually
exclusive
events.
4.7 Apply
various counting techniques ( permutations, fundamental counting
principle) to
determine
number of ways an event(s) can occur.
4.8 Draw
an area model ( spinner) to determine the geometric representation of a
sample space.
4.9 Calculate
the odds in favor and odds against an event occurring.
4.10 Compute
the expected value of an event or “game” and determine if a game
is “fair” or
not.
4.11 Apply concepts of probability as strategies in problem solving.
4.12 Utilize
probability rules to determine conditional probability.
5.
Geometry
5.1 Compare and analyze attributes of 2 and
3-dimensional geometric figures in
order to
classify these figures according to their respective properties.
5.2 Use
geometric relationships and properties in problem solving.
5.3 Identify
characteristics for basic geometric terms ( point, line, plane, space).
5.4 Identify
characteristics and correct symbolic notation for subsets of a line
and for
perpendicular and parallel lines.
5.5
Apply the Jordan Curve theorem and Map Coloring
Problem to problem solving
in topology.
5.6 Use
visual tools such as networks and Euler’s rules of traversability to problem
solve.
5.7
Identify angle relationships ( complementary,
supplementary, corresponding,
vertical,
alternate
interior, alternate exterior).
5.8 Compute
the sum of interior and exterior angles of a convex polygon.
5.9 Determine
whether a polygon is convex or non-convex.
5.10
Use a protractor and ruler to draw geometric
shapes with specified properties
such as side
lengths or angle measures.
5.11
Recognize and apply geometric ideas and relationships in
areas outside the
mathematics
classroom,
such as art, science and everyday life.
6.
Measurement
6.1
Use dimension ( unit) analysis as a problem
solving strategy.
6.2 Convert
within metric and English systems, and between English and metric
systems of
measure.
6.3 Develop strategies for estimating as
part of the measurement process.
6.4
6.4 Measure various attributes of
shapes using standard and non-standard units
of measure.
6.5
6.5 Calculate areas and perimeters of
simple and irregular shapes.
6.6
6.6 Calculate volume and surface areas of
simple and irregular solids.
6.7
Determine
angle measures for problems involving parallel lines, triangles,
and regular
polygons.
6.8 Use
visualizations and spatial reasoning to solve problems.
6.9 Use the Pythagorean Theorem as a strategy in problem solving.
6.10 Identify measurable attributes of objects and select appropriate
units and tools
for the
attribute being measured.
6.11 Recognize
attributes of length, area, volume, weight, time, and temperature,
and size of
angles.
6.12 Use
measurement to analyze characteristics and properties of 2 and
3-dimensional
geometric
shapes.
6.13 Use the similarity principle to discuss
changes to perimeter, area and
volume of
figures
affected by a scale factor, k.
6.14
Use measurement process to solve quantitative
reasoning word problems.
7.
Transformations, Symmetries and Tilings of
Plane Figures
7.1 Recognize and apply slides, flips and
turns with 2-dimensional figures.
7.2 Describe
a motion or series of motions that will show two shapes congruent
or similar.
7.3 Identify line and rotational symmetry in
2-dimensional figures.
7.4 Describe
size, orientation and position of shapes under transformations such
as
flips, turns,
slides and scaling.
7.5 Identify and create shapes that have
line and/or rotational symmetry.
7.6
Predict and describe the results of translation,
rotation, reflection and dilation
using
2-dimensional shapes.
7.7 Use
manipulatives and/or software to explore the rigid motions and dilations.
7.8 Use manipulatives and/or software to
create symmetric patterns and tilings.
7.9 Identify, compare and contrast regular
versus semi-regular tilings.
8.
Similarity, Congruence,
Constructions
8.1
Replicate Euclid’s constructions involving
copying, bisecting, and creating
perpendicular
and parallel
lines.
8.2
Use constructions as a strategy in problem solving.
8.3
Use constructions as proof for congruent (
SSS,SAS,ASA,AAS) or similar
triangles (AAA).
8.4 Construct representations of geometric
figures using a compass and
straightedge.
8.5
Define basic properties of congruent and similar
polygons.
8.6 Use principles of congruence, similarity
and proportional reasoning to model
and
interpret physical
and mathematical situations in application problems.
8.7
Relate congruence and similarity to transformational
geometry concepts of
rigid motion
and
dilation.
8.8 Recognize reasoning and proof as
fundamental aspects of mathematics.
8.9 Select and use various types of
reasoning and methods of proof.
8.10 Develop and evaluate mathematical
arguments and proofs.
(Revised: 10/05)
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