Notation What does the symbol ! represent? The five starting players of an NBA basketball team can stand in a line 5! different ways, so what is the actual number of ways that the five players can stand in a line?
Table of contents
- 1. Intro to Stats and Collecting Data1h 14m
- 2. Describing Data with Tables and Graphs1h 55m
- 3. Describing Data Numerically2h 5m
- 4. Probability2h 16m
- 5. Binomial Distribution & Discrete Random Variables3h 6m
- 6. Normal Distribution and Continuous Random Variables2h 11m
- 7. Sampling Distributions & Confidence Intervals: Mean3h 23m
- Sampling Distribution of the Sample Mean and Central Limit Theorem19m
- Distribution of Sample Mean - Excel23m
- Introduction to Confidence Intervals15m
- Confidence Intervals for Population Mean1h 18m
- Determining the Minimum Sample Size Required12m
- Finding Probabilities and T Critical Values - Excel28m
- Confidence Intervals for Population Means - Excel25m
- 8. Sampling Distributions & Confidence Intervals: Proportion1h 25m
- 9. Hypothesis Testing for One Sample3h 29m
- 10. Hypothesis Testing for Two Samples4h 50m
- Two Proportions1h 13m
- Two Proportions Hypothesis Test - Excel28m
- Two Means - Unknown, Unequal Variance1h 3m
- Two Means - Unknown Variances Hypothesis Test - Excel12m
- Two Means - Unknown, Equal Variance15m
- Two Means - Unknown, Equal Variances Hypothesis Test - Excel9m
- Two Means - Known Variance12m
- Two Means - Sigma Known Hypothesis Test - Excel21m
- Two Means - Matched Pairs (Dependent Samples)42m
- Matched Pairs Hypothesis Test - Excel12m
- 11. Correlation1h 24m
- 12. Regression1h 50m
- 13. Chi-Square Tests & Goodness of Fit2h 21m
- 14. ANOVA1h 57m
4. Probability
Fundamental Counting Principle
Problem 3.1.31
Textbook Question
Identifying the Sample Space of a Probability Experiment In Exercises 25-32, identify the sample space of the probability experiment and determine the number of outcomes in the sample space. Draw a tree diagram when appropriate.
31. Rolling a pair of six-sided dice
Verified step by step guidance1
Define the probability experiment: Rolling a pair of six-sided dice means each die has six faces numbered from 1 to 6, and both dice are rolled simultaneously.
Identify the sample space: The sample space consists of all possible ordered pairs (x, y), where x represents the outcome of the first die and y represents the outcome of the second die. Since each die has 6 outcomes, there are 6 × 6 = 36 possible outcomes.
List the sample space: The sample space can be written as S = {(1,1), (1,2), (1,3), ..., (6,6)}, where each pair represents the result of the first die and the second die.
Determine the number of outcomes: Count the total number of pairs in the sample space. Since there are 6 outcomes for the first die and 6 outcomes for the second die, the total number of outcomes is 6 × 6 = 36.
Draw a tree diagram: Start with the first die, branching out to its 6 possible outcomes (1, 2, 3, 4, 5, 6). From each of these branches, create 6 additional branches for the outcomes of the second die. This will visually represent all 36 possible outcomes.
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Key Concepts
Here are the essential concepts you must grasp in order to answer the question correctly.
Sample Space
The sample space is the set of all possible outcomes of a probability experiment. In the context of rolling a pair of six-sided dice, the sample space includes every combination of the two dice, which can range from (1,1) to (6,6). Understanding the sample space is crucial for calculating probabilities and analyzing outcomes.
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Outcomes
An outcome is a specific result of a probability experiment. When rolling two dice, each combination of the numbers shown on the dice represents a unique outcome. The total number of outcomes in this experiment can be calculated by multiplying the number of faces on each die, which is 6 x 6 = 36 outcomes.
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Tree Diagram
A tree diagram is a visual representation used to illustrate all possible outcomes of a probability experiment. For rolling two dice, a tree diagram can show the first die's outcomes branching into the second die's outcomes, helping to visualize the sample space and count the total outcomes systematically. This tool is particularly useful for complex experiments with multiple stages.
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