Let f(t) be the capacity (in percent) at which U.S. nuclear power plants are working at t years since 1970. A model of the situation is f(t) 0.027t2 + 0.216t + 53.296. %3D Use a graphing calculator to draw the graph of the model and, in the same viewing window, the scattergram of the data. Does the model fit the data well? O The function is not a good model for the data O The function is a good model for the data. Estimate at what capacity U. S. nuclear power plants were working in 2010. % Round to the nearest whole percent. Predict when U. S. nuclear power plants will be working at full (100%) capacity. Enter the year this occurs.

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**U.S. Nuclear Power Plant Capacity Over Time**

The table below represents the capacities, in percentage, at which U.S. nuclear power plants have been operating over various years:

| Year | Percent |
|------|---------|
| 1975 | 56      |
| 1980 | 59      |
| 1985 | 58      |
| 1990 | 70      |
| 1995 | 76      |
| 2000 | 88      |
| 2004 | 89      |

**Mathematical Model**

Let \( f(t) \) be the capacity (in percent) at which U.S. nuclear power plants are working at \( t \) years since 1970. A model of the situation is given by:

\[ f(t) = 0.027t^2 + 0.216t + 53.296 \]

**Exercise: Data Visualization and Model Evaluation**

Using a graphing calculator:

1. Plot the graph of the function \( f(t) \).
2. Plot the scattergram using the data points from the table.
3. Evaluate: Does the model fit the data well?

- \( \circ \) The function is not a good model for the data.
- \( \circ \) The function is a good model for the data.

**Prediction Task**

Estimate at what capacity U.S. nuclear power plants were operating in 2010.
Transcribed Image Text:**U.S. Nuclear Power Plant Capacity Over Time** The table below represents the capacities, in percentage, at which U.S. nuclear power plants have been operating over various years: | Year | Percent | |------|---------| | 1975 | 56 | | 1980 | 59 | | 1985 | 58 | | 1990 | 70 | | 1995 | 76 | | 2000 | 88 | | 2004 | 89 | **Mathematical Model** Let \( f(t) \) be the capacity (in percent) at which U.S. nuclear power plants are working at \( t \) years since 1970. A model of the situation is given by: \[ f(t) = 0.027t^2 + 0.216t + 53.296 \] **Exercise: Data Visualization and Model Evaluation** Using a graphing calculator: 1. Plot the graph of the function \( f(t) \). 2. Plot the scattergram using the data points from the table. 3. Evaluate: Does the model fit the data well? - \( \circ \) The function is not a good model for the data. - \( \circ \) The function is a good model for the data. **Prediction Task** Estimate at what capacity U.S. nuclear power plants were operating in 2010.
### Capacity of U.S. Nuclear Power Plants Over Time

The table below shows the percentage capacity at which U.S. nuclear power plants have been operating at various years since 1970:

| Year | Capacity (%) |
|------|--------------|
| 1990 | 70           |
| 1995 | 76           |
| 2000 | 88           |
| 2004 | 89           |

#### Mathematical Model

Let \( f(t) \) represent the capacity (in percent) of U.S. nuclear power plants operating at \( t \) years since 1970. The model representing this situation is given by:

\[ f(t) = 0.027t^2 + 0.216t + 53.296 \]

#### Graphing and Analysis

- Use a graphing calculator to plot the function \( f(t) \) and compare it with the scatter plot of the data provided in the table.
- Evaluate the fit of the model to the data.

**Options:**
- The function is not a good model for the data.
- The function is a good model for the data.

#### Estimations and Predictions

1. **Estimate the Capacity for 2010:**
   - Calculate the capacity percentage for the year 2010 using the model. Round your answer to the nearest whole percent.

2. **Predict Full Capacity:**
   - Determine the year when U.S. nuclear power plants will operate at full (100%) capacity using the model.

This exercise aids in understanding how mathematical modeling and calculations are used to predict trends and capacities in real-world scenarios like nuclear power plant operations.
Transcribed Image Text:### Capacity of U.S. Nuclear Power Plants Over Time The table below shows the percentage capacity at which U.S. nuclear power plants have been operating at various years since 1970: | Year | Capacity (%) | |------|--------------| | 1990 | 70 | | 1995 | 76 | | 2000 | 88 | | 2004 | 89 | #### Mathematical Model Let \( f(t) \) represent the capacity (in percent) of U.S. nuclear power plants operating at \( t \) years since 1970. The model representing this situation is given by: \[ f(t) = 0.027t^2 + 0.216t + 53.296 \] #### Graphing and Analysis - Use a graphing calculator to plot the function \( f(t) \) and compare it with the scatter plot of the data provided in the table. - Evaluate the fit of the model to the data. **Options:** - The function is not a good model for the data. - The function is a good model for the data. #### Estimations and Predictions 1. **Estimate the Capacity for 2010:** - Calculate the capacity percentage for the year 2010 using the model. Round your answer to the nearest whole percent. 2. **Predict Full Capacity:** - Determine the year when U.S. nuclear power plants will operate at full (100%) capacity using the model. This exercise aids in understanding how mathematical modeling and calculations are used to predict trends and capacities in real-world scenarios like nuclear power plant operations.
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