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Statistics and Probability
Instructor: Tim Frame
Voice mail: 763.506.6261
Email: tim.frame@ahschools.us
Student progress: This is a required course, meaning successful completion is required for graduation. Students and parents may access progress reports at any time via AH Connect.
Class Tools:
- Scientific calculator or graphing calculator
- folder and pencil
Homework: Students will be assigned daily homework. A satisfactory assignment is one that shows an effort to do all of the assigned problems and demonstrates an understanding of the procedures used. Homework will be collected on a daily basis. Points will be deducted for late work and all late work must be turned in before the unit test.
Assessments:
There will be at least one quiz per chapter. You may use your note packet on quizzes. We will have a test at the end of each unit as well as a final test at the end of the trimester. In order for a test re-take to be an option you need to meet the following requirements:
- all homework for the unit is completed by the original test date
- the remediation (extra practice) packet is completed
- re-test is completed (either Tuesday during advisement or Wednesday morning during tornado time) within one week of the original test date
Absences: It is important to keep absences to a minimum. Due to the activities that are done in class and the fact that you will not have a book, absences can be a major obstacle to success in this class. All class notes can be found on my website.
Keys for success:
- Ask questions in class.
- Read and study your notes.
- See me before or after school in the Math Resource Center for extra help.
- Work on homework with other students from class.
- Watch video tutorials (follow the link on my web page)
- Attend class every day.
Grading
A 90% and above
B 80% - 89%
C 70% - 79%
D 60% - 69%
F 0% - 59%
Weighting Scale:
70 % Tests
10 % Quizzes
20 % Final Exam
PRIORITY
High, Medium, LowLearning Targets
Approximate # of Days
Resources
Standards 2007 Benchmarks
Chapter 1
6-8 days total
high
I can list the outcomes in a sample space for an event by making a list, creating a tree diagram, or by creating a table or grid.
1.1
9.4.3.1
high
I can find the number of outcomes for an event using the Fundamental Counting Principle.
1.2
9.4.3.1
high
I can find the number of outcomes for an event using permutations.
1.3
9.4.3.1
high
I can find the number of outcomes for an event using combinations.
1.4
9.4.3.1
high
I can select and apply an appropriate counting method to determine the number of outcomes for an event.
1.1, 1.2, 1.3, 1.4, 1.5
9.4.3.1
low
I can select and apply more than one counting method in a multi-step situation to determine the number of outcomes for an event.
1.5
9.4.3.1
Chapter 2
8-10 days total
high
I can use counting methods to calculate and write a probability for a simple event.
2.1
9.4.3.1
low
I can use the concept of the Law of Large Numbers and probabilities to make informed decisions.
2.1
9.4.3.3, 9.4.3.8
high
I can calculate probabilities for compound events with or without replacement.
2.2
9.4.3.5
medium
I can identify and apply the concepts of mutually exclusive and independence when calculating probabilities for two or more events.
2.2, 2.3
9.4.3.5
medium
I can create and use Venn Diagrams to calculate probabilities involving the intersection ("AND"), union ("OR"), or complements ("NOT") of events.
2.1, 2.3
9.4.3.6
medium
I can create and use Tree Diagrams to calculate probabilities involving the intersection ("AND"), union ("OR"), or complements ("NOT") of events.
2.4
9.4.3.1
medium
I can create and use a 2-way table to calculate probabilities involving the intersection ("AND"), union ("OR"), complements ("NOT"), or conditional probabilities ("GIVEN") of events.
2.5
9.4.3.9
low
I can use probability formulas to calculate probabilities involving the intersection ("AND"), union ("OR"), complements ("NOT"), or conditional probabilities ("GIVEN") of events.
2.2, 2.3, 2.4, 2.5
9.4.3.7
high
I can select and apply an appropriate method to calculate the probability for an event or series of events.
2.1, 2.2, 2.3, 2.4, 2.5
9.4.3.5, 9.4.3.6, 9.4.3.7
Chapter 3
5-7 days total
high
I can construct a probability model.
3.1, 3.2, 3.3
9.4.3.1
high
I can calculate the expected value of a variable.
3.1, 3.2, 3.3
9.4.3.2
medium
I can use expected value to determine if a game is fair
3.2, 3.3
9.4.3.8
medium
I can assign digits to a probability model for a simulation.
3.3
9.4.3.4
medium
I can carry out a simulation using a random digit table and properly assigned digits based on a probability model.
3.3
9.4.3.2, 9.4.3.4
low
I can interpret the results from repeated simulations by calculating an experimental probability to make a decision about future outcomes (Law of Large Numbers).
3.3
9.4.3.2, 9.4.3.3
Chapter 4
6-8 days total
high
I can distinguish between the various methods for data collection (sample survey, census, observational studies and experiments).
4.1
9.4.2.1
low
I can identify sampling methods (SRS, stratified RS, systematic RS, multi-stage RS, voluntary response, convenience).
4.2
9.4.2.3
high
I can evaluate sampling methods and identify potential sources of bias in the data collection process.
4.2
9.4.2.3
medum
I can use a table of random digits or technology to select a random sample.
4.3
9.4.3.4
medium
I can find the margin of error and write a confidence statement for an estimated 95% confidence interval.
4.4
9.4.2
low
I can identify different experiment designs (completely randomized design and randomized block design).
4.5
9.4.2.3
high
I can evaluate experimental designs and identify potential lurking variables in the data collection process.
4.5
9.4.2.2, 9.4.2.3
low
I can design a good experiment.
4.5
9.4.2.3
Chapter 5
8-9 days total
low
I can construct a bar graph or pie chart for a set of categorical data.
5.1
9.4.1.1
high
I can interpret a bar graph or pie chart for a set of categorical data.
5.1
9.4.1.1
high
I can identify when a data display is misleading or distorted.
5.1
9.4.2.1, 9.4.2.2
low
I can construct and interpret a graph that shows change over time (line graph or time plot).
5.2
9.4.1.1
high
I can calculate statistics for the measure of center of numerical data (mean, median, mode).
5.2
9.4.1.1
high
I can calculate statistics for the measure of spread of numerical data (range, IQR, standard deviation).
5.2, 5.5
9.4.1.1
low
I can construct a dot plot for a numerical data set.
5.2
9.4.1.1
medium
I can interpret and describe a dot plot (SOCCS).
5.3
9.4.1.1
low
I can construct a stem-plot for a numerical data set, including split-stem plots.
5.3
9.4.1.1
high
I can interpret and describe a stem-plot (SOCCS).
5.3
9.4.1.1
low
I can construct a histogram for a numerical data set.
5.4
9.4.1.1
high
I can interpret and describe a histogram (SOCCS).
5.4
9.4.1.1
high
I can calculate a 5-Number Summary for a set of numerical data {minimum, quartile 1, median, quartile 3, maximum}.
5.5
9.4.1.1
medium
I can construct a box-plot for a numerical data set.
5.5
9.4.1.1
high
I can interpret and describe a box-plot (SOCCS).
5.5
9.4.1.1
low
I can identify outliers in a set of data using the IQR Criterion.
5.5
9.4.1.1
medium
I can decide which measures of center (mean, median, mode) and spread (range, standard deviation, IQR) are appropriate to describe a given situation.
5.5
9.4.1.1, 9.4.1.2
high
I can analyze/deduce/infer the effects of an outlier and removing a data point from a set of data.
5.5
9.4.1.2
low
I can compare more than one set of numerical data using multiple graphical displays (side-by-side box plots and back-to-back stem plots).
5.6
9.4.1.1
high
I can determine an appropriate type of graphical display for data.
5.1, 5.2, 5.3, 5.4, 5.5, 5.6
9.4.1.1
Chapter 6
6-7 days total
medium
I can construct a scatterplot to display the relationship between two numerical variables (with and without technology).
6.1, 6.3, 6.4
9.4.1.3
high
I can describe and interpret a scatterplot (SCOFD).
6.1, 6.2, 6.3, 6.4
9.4.1.3
medium
I can calculate the correlation coefficient of two variables using technology.
6.3
9.4.1.3
high
I can interpret the meaning of the correlation coefficient.
6.2, 6.3, 6.4
9.4.1.3
high
I can recognize when arguments based on data confuse correlation and causation.
6.2
9.4.2.2
medium
I can identify possible lurking variables in bi-variate data.
6.2
9.4.2.2
medium
I can calculate and graph a least squares regression line (LSRL) as a line of best fit.
6.3, 6.4
9.4.1.3
high
I can use the LSRL equation to make predictions.
6.3, 6.4
9.4.1.3
medium
I can determine the validity of the predictions made with a least squares regression equation (interpolation and extrapolation).
6.3, 6.4
9.4.1.3
medium
I can interpret the slope and the y-intercept of the LSRL.
6.3, 6.4
9.4.1.3
high
I can describe the effects of an outlier on the correlation coefficient (r) and the LSRL equation.
6.3, 6.4
9.4.1.3
Chapter 7
5-6 days total
low
I can construct a normal curve for a normal distribution
7.1
9.4.1.4
medium
I can identify the approximate mean and standard deviation from a normal curve.
7.1
9.4.1.4
low
I can use the Empirical Rule (68-95-99.7) to estimate probabilities and percentages about a normal distribution.
7.1
9.4.1.4
high
I can calculate a z-score (standard score).
7.2
9.4.1.4
medium
I can use z-scores to compare results for two different situations.
7.2
9.4.1.4
high
I can explain what it means for a data point to be at a certain percentile.
7.2
9.4.1.4
high
I can use z-scores (standard scores) and the characteristics of a normal distribution to estimate population percentages.
7.2
9.4.1.4
medium
I can calculate probabilities for a normal distribution above, below, or between two data points.
7.2
9.4.1.4
low
I can work backwards to find a piece of data given a percentile.
7.3
9.4.1.4