A pot of boiling soup with an internal temperature of 100° Fahrenheit was taken off the stove to cool in a 72°F room. After fifteen minutes, the internal temperature of the soup was 92°F. Use Newton's Law of Cooling to write a formula T(t) that models this situation, where T is the temperature of the soup in degrees Fahrenheit and t is time in minutes. T(t) =

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Chapter1: Units, Trigonometry. And Vectors
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**Text Transcription:**

A pot of boiling soup with an internal temperature of 100° Fahrenheit was taken off the stove to cool in a 72°F room. After fifteen minutes, the internal temperature of the soup was 92°F.

Use Newton's Law of Cooling to write a formula \( T(t) \) that models this situation, where \( T \) is the temperature of the soup in degrees Fahrenheit and \( t \) is time in minutes.

\[ T(t) = \text{[ ]} \]

**Explanation:**

This text describes a scenario where a hot object (soup) cools in a room at a different temperature. Using Newton's Law of Cooling, you are tasked with creating an equation to describe the temperature changes over time. The initial and ambient temperatures, as well as a specific time and temperature, are provided to help build this model. The equation will be in the form of \( T(t) \), where \( T \) is the temperature and \( t \) is the time in minutes.
Transcribed Image Text:**Text Transcription:** A pot of boiling soup with an internal temperature of 100° Fahrenheit was taken off the stove to cool in a 72°F room. After fifteen minutes, the internal temperature of the soup was 92°F. Use Newton's Law of Cooling to write a formula \( T(t) \) that models this situation, where \( T \) is the temperature of the soup in degrees Fahrenheit and \( t \) is time in minutes. \[ T(t) = \text{[ ]} \] **Explanation:** This text describes a scenario where a hot object (soup) cools in a room at a different temperature. Using Newton's Law of Cooling, you are tasked with creating an equation to describe the temperature changes over time. The initial and ambient temperatures, as well as a specific time and temperature, are provided to help build this model. The equation will be in the form of \( T(t) \), where \( T \) is the temperature and \( t \) is the time in minutes.
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