A hand containing exactly one pair consists of two cards with the same denomination but different suits and three more cards each with a denomination different than the denomination of the pair. For example, a hand containing one pair could be (4H, 4S, 3C,5H,King H). The 4 of hearts and the 4 of spades is the pair in the this example. Compute the probability of a hand containing exactly one pair (e.g. not two pairs, no three of a kind, etc.).

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**Title: Probability of Drawing Exactly One Pair from a Standard Deck of Cards**

**Introduction:**
In a standard deck of 52 playing cards, each card is uniquely identified by one of four suits (hearts, clubs, diamonds, spades) and one of 13 face values or denominations (ace, 2, 3, 4, 5, 6, 7, 8, 9, 10, jack, queen, king). A hand consists of 5 cards chosen from these 52.

**Defining the Hand with Exactly One Pair:**
A hand containing exactly one pair consists of:
- Two cards of the same denomination but different suits.
- Three other cards, each with a denomination different from the pair and each other.

**Example:**
A hand containing one pair could be:
- 4H (4 of hearts)
- 4S (4 of spades)
- 3C (3 of clubs)
- 5H (5 of hearts)
- KH (king of hearts)

In this example, the pair is formed by the 4 of hearts and the 4 of spades.

**Objective:**
Compute the probability of drawing a hand that contains exactly one pair (not two pairs, no three of a kind, etc.).

**Calculation Details:**
1. **Denominator (Total Ways to Choose 5 Cards from 52):**
   The total number of ways to choose 5 cards from 52 is given by the combination formula \( \binom{52}{5} \).
   
   \[
   \binom{52}{5} = \frac{52!}{5!(52-5)!} = 2,598,960
   \]

2. **Numerator (Ways to Form Exactly One Pair):**
   To find the numerator, we proceed using the multiplication rule:
   
   - **Step 1: Choose the denomination for the pair.**
     There are 13 possible denominations, so 13 ways.
     
   - **Step 2: Choose 2 out of 4 suits for this denomination.**
     For each denomination chosen, there are \( \binom{4}{2} = 6 \) ways.
     
   - **Step 3: Choose 3 different denominations for the remaining cards.**
     After choosing the denomination of the pair, 12 denominations remain. We choose 3 out of these 12,
Transcribed Image Text:**Title: Probability of Drawing Exactly One Pair from a Standard Deck of Cards** **Introduction:** In a standard deck of 52 playing cards, each card is uniquely identified by one of four suits (hearts, clubs, diamonds, spades) and one of 13 face values or denominations (ace, 2, 3, 4, 5, 6, 7, 8, 9, 10, jack, queen, king). A hand consists of 5 cards chosen from these 52. **Defining the Hand with Exactly One Pair:** A hand containing exactly one pair consists of: - Two cards of the same denomination but different suits. - Three other cards, each with a denomination different from the pair and each other. **Example:** A hand containing one pair could be: - 4H (4 of hearts) - 4S (4 of spades) - 3C (3 of clubs) - 5H (5 of hearts) - KH (king of hearts) In this example, the pair is formed by the 4 of hearts and the 4 of spades. **Objective:** Compute the probability of drawing a hand that contains exactly one pair (not two pairs, no three of a kind, etc.). **Calculation Details:** 1. **Denominator (Total Ways to Choose 5 Cards from 52):** The total number of ways to choose 5 cards from 52 is given by the combination formula \( \binom{52}{5} \). \[ \binom{52}{5} = \frac{52!}{5!(52-5)!} = 2,598,960 \] 2. **Numerator (Ways to Form Exactly One Pair):** To find the numerator, we proceed using the multiplication rule: - **Step 1: Choose the denomination for the pair.** There are 13 possible denominations, so 13 ways. - **Step 2: Choose 2 out of 4 suits for this denomination.** For each denomination chosen, there are \( \binom{4}{2} = 6 \) ways. - **Step 3: Choose 3 different denominations for the remaining cards.** After choosing the denomination of the pair, 12 denominations remain. We choose 3 out of these 12,
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