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Jerry Stackhouse of the National Basketball Association's Dallas Mavericks is the best freethrow shooter on the team, making \(89 \%\) of his shots (ESPN website, July, 2008 ). Assume that late in a basketball game, Jerry Stackhouse is fouled and is awarded two shots. a. What is the probability that he will make both shots? b. What is the probability that he will make at least one shot? c. What is the probability that he will miss both shots? d. Late in a basketball game, a team often intentionally fouls an opposing player in order to stop the game clock. The usual strategy is to intentionally foul the other team's worst free-throw shooter. Assume that the Dallas Mavericks' center makes \(58 \%\) of his free-throw shots. Calculate the probabilities for the center as shown in parts (a), (b), and (c), and show that intentionally fouling the Dallas Mavericks' center is a better strategy than intentionally fouling Jerry Stackhouse.

Short Answer

Expert verified
Fouling the center is better; he has higher miss probabilities than Stackhouse.

Step by step solution

01

Determine the Probability of Both Shots Made by Stackhouse

Jerry Stackhouse makes 89% of his free-throw shots. The probability that he makes both shots is given by the product of the individual probabilities: \[ P(\text{both made}) = 0.89 \times 0.89 = 0.7921. \]
02

Determine the Probability of Stackhouse Making At Least One Shot

To solve this, first calculate the probability of him missing both shots, and then subtract it from 1.\[P(\text{both missed}) = (1 - 0.89) \times (1 - 0.89) = 0.11 \times 0.11 = 0.0121.\]Then the probability of making at least one shot is:\[P(\text{at least one made}) = 1 - P(\text{both missed}) = 1 - 0.0121 = 0.9879.\]
03

Determine the Probability of Stackhouse Missing Both Shots

As calculated in Step 2, the probability of Jerry Stackhouse missing both shots is:\[ P(\text{both missed}) = 0.0121. \]
04

Repeat Steps for the Center Making Both Shots

The center makes 58% of his shots. Therefore, the probability of making both is:\[ P(\text{both made}) = 0.58 \times 0.58 = 0.3364. \]
05

Calculate the Probability of the Center Making At Least One Shot

Calculate the probability of the center missing both shots:\[P(\text{both missed}) = (1 - 0.58) \times (1 - 0.58) = 0.42 \times 0.42 = 0.1764.\]Then the probability of making at least one shot is:\[P(\text{at least one made}) = 1 - P(\text{both missed}) = 1 - 0.1764 = 0.8236.\]
06

Calculate the Probability of the Center Missing Both Shots

As calculated in Step 5, the probability of the center missing both shots is:\[ P(\text{both missed}) = 0.1764. \]
07

Compare the Strategies

The probability of Stackhouse making both shots is 0.7921, while the center's is 0.3364. The probability of Stackhouse making at least one shot is 0.9879, while the center's is 0.8236. Thus, intentionally fouling the center is better since the likelihood of him missing both is higher at 0.1764 compared to Stackhouse's 0.0121.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Free Throw Shooting
Free throw shooting is a critical skill in basketball, often turning into a defining element during close games. It refers to the ability of a player to score points from unopposed attempts at the basket, typically allocated after a foul by the opposing team. Understanding free throw success involves grasping the concept of probability. For instance, if a player like Jerry Stackhouse has a free throw shooting percentage of 89%, it means he scores 89 times out of every 100 attempts. In the realm of probability, calculating the likelihood of different shooting outcomes, such as making both shots or missing both, is an important tool. This statistics-driven approach can provide insights into a player's consistency and reliability under pressure. Mastering this concept helps not only in pinpointing individual performance but also strategic decision-making for the team.
Basketball Statistics
Basketball statistics provide a quantitative means to gauge player performance and team strategies, offering a window into the effectiveness, strengths, and weaknesses of various players and tactics. Statistics such as shooting percentages, assists, rebounds, and turnovers serve as critical indicators. For players like Jerry Stackhouse, proficiency in free throws can be numerically expressed, for example, with an 89% success rate. This data allows coaches, teams, and analysts to evaluate his reliability in clutch situations.
Analyzing these stats, a coach might determine when to best leverage a player's skills or compensate for his weaknesses. Every stat is an opportunity to explore various aspects of the game, forming a foundational element in preparing winning strategies. Essentially, statistical data serves as a factual basis for everything from game-day decisions to training adjustments.
Sports Strategy
In basketball, sports strategy often revolves around exploiting your team’s strengths and the opponent's weaknesses. A common tactic is intentional fouling, particularly late in the game, to gain strategic advantage by stopping the clock and forcing the opposing player to rely on their free-throw skills. Targeting the weakest free throw shooters increases the chance of regaining possession while minimizing points gained by the opponent.
For example, as outlined in the original solution, a coach might choose to foul a player with only a 58% free throw success rate instead of Jerry Stackhouse, who hits 89%. By understanding these probabilities, teams can implement tactics that maximize their winning potential. Basketball strategy involves a careful balance of risk and opportunity, with statistical insights informing many critical in-game decisions.
Statistical Comparison
Statistical comparison allows teams to evaluate players and strategies through a numerical lens. By comparing the probabilities of making or missing free throws, teams can decide the best course of action during a game. In the example provided, Jerry Stackhouse's probabilities of making both free throws, making at least one shot, and missing both were calculated, as were those of the team's center.
  • For Stackhouse, the probability of making both shots was 0.7921.
  • Contrast this with the center's probability of 0.3364.
  • Moreover, Stackhouse’s chance of making at least one shot stood at 0.9879, while the center's probability was 0.8236.
  • Missing both shots was most likely for the center at 0.1764, compared to just 0.0121 for Stackhouse.
This statistical analysis confirms that fouling the center, with a lower shooting percentage, offers a greater strategic advantage. These comparisons are a cornerstone in optimizing basketball strategies, allowing for informed, evidence-based decisions in high-stakes environments.

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Most popular questions from this chapter

High school seniors with strong academic records apply to the nation's most selective colleges in greater numbers each year. Because the number of slots remains relatively stable, some colleges reject more early applicants. Suppose that for a recent admissions class, an Ivy League college received 2851 applications for early admission. Of this group, it admitted 1033 students early, rejected 854 outright, and deferred 964 to the regular admission pool for further consideration. In the past, this school has admitted \(18 \%\) of the deferred early admission applicants during the regular admission process. Counting the students admitted early and the students admitted during the regular admission process, the total class size was \(2375 .\) Let \(E, R,\) and \(D\) represent the events that a student who applies for early admission is admitted early, rejected outright, or deferred to the regular admissions pool. a. Use the data to estimate \(P(E), P(R),\) and \(P(D)\). b. Are events \(E\) and \(D\) mutually exclusive? Find \(P(E \cap D)\). c. For the 2375 students who were admitted, what is the probability that a randomly selected student was accepted during early admission? d. Suppose a student applies for early admission. What is the probability that the student will be admitted for early admission or be deferred and later admitted during the regular admission process?

Suppose that we have two events, \(A\) and \(B,\) with \(P(A)=.50, P(B)=.60,\) and \(P(A \cap B)=.40\). a. \(\quad\) Find \(P(A | B)\). b. Find \(P(B | A)\). c. Are \(A\) and \(B\) independent? Why or why not?

An experiment has three steps with three outcomes possible for the first step, two outcomes possible for the second step, and four outcomes possible for the third step. How many experimental outcomes exist for the entire experiment?

A company studied the number of lost-time accidents occurring at its Brownsville, Texas, plant. Historical records show that \(6 \%\) of the employees suffered lost-time accidents last year. Management believes that a special safety program will reduce such accidents to \(5 \%\) during the current year. In addition, it estimates that \(15 \%\) of employees who had lost-time accidents last year will experience a lost-time accident during the current year. a. What percentage of the employees will experience lost-time accidents in both years? b. What percentage of the employees will suffer at least one lost-time accident over the two-year period?

The Powerball lottery is played twice each week in 28 states, the Virgin Islands, and the District of Columbia. To play Powerball a participant must purchase a ticket and then select five numbers from the digits 1 through 55 and a Powerball number from the digits 1 through 42\. To determine the winning numbers for each game, lottery officials draw 5 white balls out of a drum with 55 white balls, and 1 red ball out of a drum with 42 red balls. To win the jackpot, a participant's numbers must match the numbers on the 5 white balls in any order and the number on the red Powerball. Eight coworkers at the ConAgra Foods plant in Lincoln, Nebraska, claimed the record \(\$ 365\) million jackpot on February \(18,2006,\) by matching the numbers \(15-17-43-44-49\) and the Powerball number \(29 .\) A variety of other cash prizes are awarded each time the game is played. For instance, a prize of \(\$ 200,000\) is paid if the participant's five numbers match the numbers on the 5 white balls (Powerball website, March 19,2006 ). a. Compute the number of ways the first five numbers can be selected. b. What is the probability of winning a prize of \(\$ 200,000\) by matching the numbers on the 5 white balls? c. What is the probability of winning the Powerball jackpot?

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