/*! This file is auto-generated */ .wp-block-button__link{color:#fff;background-color:#32373c;border-radius:9999px;box-shadow:none;text-decoration:none;padding:calc(.667em + 2px) calc(1.333em + 2px);font-size:1.125em}.wp-block-file__button{background:#32373c;color:#fff;text-decoration:none} Problem 40 Fill in the blanks using the nam... [FREE SOLUTION] | 91Ó°ÊÓ

91Ó°ÊÓ

Fill in the blanks using the named events. \(95 \%\) of all music composers can read music \((M)\), whereas \(99 \%\) of all classical music composers \((C)\) can read music. \(P(\quad)=: P(\longrightarrow \mid \longrightarrow)=\)

Short Answer

Expert verified
In order to find the probability P(C|M), we need additional information about P(C), the probability of a music composer being a classical music composer. But we can use Bayes' Theorem with the information provided: \[P(C | M) = \frac{0.99 * P(C)}{0.95}\]

Step by step solution

01

Understand the problem and define events

We have two events: 1. M (Music composer can read music) 2. C (Composer is a classical music composer) Now, let's define the given probabilities: 1. P(M) = 0.95 (95% of all music composers can read music) 2. P(M|C) = 0.99 (99% of all classical music composers can read music) We need to find the probability P(C|M).
02

Apply Bayes' Theorem

We will use Bayes' Theorem to solve this problem. Bayes' Theorem states: \[P(C | M) = \frac{P(M | C) * P(C)}{P(M)}\] We have P(M|C) = 0.99 and P(M) = 0.95. But we are not given the probability P(C). We will assume it as P(C). Now, let's substitute the known values in the Bayes' Theorem formula: \[P(C | M) = \frac{0.99 * P(C)}{0.95}\]
03

Solve for P(C|M)

Since we do not have the additional information for P(C), the probability of a music composer being a classical music composer, we cannot find the exact value of the conditional probability P(C|M).

Unlock Step-by-Step Solutions & Ace Your Exams!

  • Full Textbook Solutions

    Get detailed explanations and key concepts

  • Unlimited Al creation

    Al flashcards, explanations, exams and more...

  • Ads-free access

    To over 500 millions flashcards

  • Money-back guarantee

    We refund you if you fail your exam.

Over 30 million students worldwide already upgrade their learning with 91Ó°ÊÓ!

Key Concepts

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

Conditional Probability
Conditional probability is a fundamental concept in probability theory. It allows us to update our predictions given new information. Imagine you have a certain event that you know has already occurred, and you want to know the probability of another event happening under this condition. That's where conditional probability comes in handy. It's all about narrowing down the sample space to just the cases you are interested in. For example, in our exercise, we know that a composer can read music, i.e., the event M has occurred. We want to know the probability that this music composer is also a classical music composer, which is represented as P(C|M). To find this, we use Bayes' Theorem to relate conditional probabilities in an efficient way.
Probability Theory
Probability theory is the mathematical framework we use to study randomness and uncertainty. It's a branch of mathematics that helps us understand and model situations where the outcome is unpredictable. At the core of probability theory is the concept of a probability measure, which assigns values between 0 and 1 to the occurrence of different outcomes or events. Let's go through some key terms:
  • **Outcome**: The result of a single trial of a probability experiment.
  • **Event**: A set of outcomes put together. It typically meets a specific condition or criteria.
  • **Sample Space**: The collection of all possible outcomes.
In our exercise, the outcomes are whether a composer can read music and whether they are a classical composer. Probability theory helps us calculate these possibilities using known data and formulas.
Music Composers
When we think about music composers, we may imagine creative and talented individuals who craft beautiful symphonies or catchy tunes. Music composers can be classified into various categories based on their style or era, such as classical composers. In the context of our exercise, composers are those who can read music. Specifically, it's given that 95% of all music composers can do so. Among these, classical music composers are a significant subgroup. Understanding the characteristics of different kinds of music composers can enrich our approach to solving probability questions involving them.
Events in Probability
In probability, an event refers to one or more outcomes from a probability experiment. These are the possible scenarios we investigate to assign probabilities. An event can be as simple as flipping a coin and getting heads or as complex as deciding the chances that a composer is classical and can read music. Events can be independent, where the occurrence of one does not affect the other, or they can be dependent, meaning one event influences or provides information about the other. Our exercise outlines two events:
  • M: A music composer can read music.
  • C: A composer is a classical music composer.
Understanding how these events interact helps us calculate the probabilities of more complex combined events using principles like Bayes' Theorem.

One App. One Place for Learning.

All the tools & learning materials you need for study success - in one app.

Get started for free

Most popular questions from this chapter

\- Construct a four-state Markov system so that both \([.5 .500]\) and \(\left[\begin{array}{ll}0 & 0.5 .5\end{array}\right]\) are steady-state vectors. HINT [Try one in which no arrows link the first two states to the last two.]

Concern the following chart, which shows the way in which a dog moves its facial muscles when torn between the drives of fight and flight. \({ }^{4}\) The "fight" drive increases from left to right; the "fight" drive increases from top to bottom. (Notice that an increase in the "fight" drive causes its upper lip to lift, while an increase in the "flight" drive draws its ears downward.) \(\nabla\) Let \(E\) be the event that the dog's flight drive is the strongest, let \(F\) be the event that the dog's flight drive is weakest, let \(G\) be the event that the dog's fight drive is the strongest, and let \(H\) be the event that the dog's fight drive is weakest. Describe the following events in terms of \(E, F, G\), and \(H\) using the symbols \(\cap, \cup\), and \(^{\prime}\). a. The dog's flight drive is not strongest and its fight drive is weakest. b. The dog's flight drive is strongest or its fight drive is weakest. c. Neither the dog's flight drive nor its fight drive is strongest.

According to a University of Maryland study of 200 samples of ground meats, \({ }^{58}\) the probability that a ground meat sample was contaminated by a strain of salmonella resistant to at least three antibiotics was .11. The probability that someone infected with any strain of salmonella will become seriously ill is .10. What is the probability that someone eating a randomly-chosen ground meat sample will not become seriously ill with a strain of salmonella resistant to at least three antibiotics?

\- Construct a regular state transition diagram that possesses the steady- state vector \(\left[\begin{array}{lll}.3 & .3 & .4\end{array}\right]\).

Let \(E\) be the event that you meet a tall dark stranger. Which of the following could reasonably represent the experiment and sample space in question? (A) You go on vacation and lie in the sun; \(S\) is the set of cloudy days. (B) You go on vacation and spend an evening at the local dance club; \(S\) is the set of people you meet. (C) You go on vacation and spend an evening at the local dance club; \(S\) is the set of people you do not meet.

See all solutions

Recommended explanations on Math Textbooks

View all explanations

What do you think about this solution?

We value your feedback to improve our textbook solutions.

Study anywhere. Anytime. Across all devices.