Write the domain of f in interval notation. Enter -0 as -INF, Co as INF, and U (union) as U. Domain of f : Submit Answer Tries 0/99 Write the range of f in interval notation. Enter -0 as -INF, o as INF, and U (union) as U. Range of f : Submit Answer Tries 0/99 Find f (-1) . If the function is undefined for the input -1, type UNDEFINED . f(-1) =

Advanced Engineering Mathematics
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ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
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Write the domain of \( f \) in interval notation. Enter \( -\infty \) as -INF, \( \infty \) as INF, and \( \cup \) (union) as U.

**Domain of \( f \):**
[Input Box]

[Submit Answer]  Tries 0/99

---

Write the range of \( f \) in interval notation. Enter \( -\infty \) as -INF, \( \infty \) as INF, and \( \cup \) (union) as U.

**Range of \( f \):**
[Input Box]

[Submit Answer]  Tries 0/99

---

Find \( f(-1) \). If the function is undefined for the input \(-1\), type **UNDEFINED**.

\( f(-1) = \)
[Input Box]

[Submit Answer]  Tries 0/99
Transcribed Image Text:Write the domain of \( f \) in interval notation. Enter \( -\infty \) as -INF, \( \infty \) as INF, and \( \cup \) (union) as U. **Domain of \( f \):** [Input Box] [Submit Answer] Tries 0/99 --- Write the range of \( f \) in interval notation. Enter \( -\infty \) as -INF, \( \infty \) as INF, and \( \cup \) (union) as U. **Range of \( f \):** [Input Box] [Submit Answer] Tries 0/99 --- Find \( f(-1) \). If the function is undefined for the input \(-1\), type **UNDEFINED**. \( f(-1) = \) [Input Box] [Submit Answer] Tries 0/99
The image displays a graph of the natural logarithm function, \( y = \ln(x) \).

**Graph Description:**

- **Axes and Scale:**
  - The horizontal axis (x-axis) ranges from -1 to 9.
  - The vertical axis (y-axis) ranges from -4 to 4.
  - Both axes are labeled with increments of 1.

- **Curve Characteristics:**
  - The curve is drawn in red.
  - It starts from a point approaching negative infinity as it gets closer to the y-axis from the right, reflecting the property that the logarithm of 0 is undefined.
  - The curve passes through the point (1, 0), illustrating that \(\ln(1) = 0\).
  - It increasingly grows at a decelerating rate as x-values increase, indicating a logarithmic growth pattern.

**Behavior of the Logarithmic Function:**

- The graph is only defined for positive values of \(x\).
- For \(x > 0\): The function indicates a slow, continuous increase in y-values as x increases.
- As \(x\) approaches 0 from the right, the value of \(y = \ln(x)\) tends toward negative infinity.

This graph is commonly used to demonstrate how logarithmic functions behave, especially their growth dynamics and intercepts.
Transcribed Image Text:The image displays a graph of the natural logarithm function, \( y = \ln(x) \). **Graph Description:** - **Axes and Scale:** - The horizontal axis (x-axis) ranges from -1 to 9. - The vertical axis (y-axis) ranges from -4 to 4. - Both axes are labeled with increments of 1. - **Curve Characteristics:** - The curve is drawn in red. - It starts from a point approaching negative infinity as it gets closer to the y-axis from the right, reflecting the property that the logarithm of 0 is undefined. - The curve passes through the point (1, 0), illustrating that \(\ln(1) = 0\). - It increasingly grows at a decelerating rate as x-values increase, indicating a logarithmic growth pattern. **Behavior of the Logarithmic Function:** - The graph is only defined for positive values of \(x\). - For \(x > 0\): The function indicates a slow, continuous increase in y-values as x increases. - As \(x\) approaches 0 from the right, the value of \(y = \ln(x)\) tends toward negative infinity. This graph is commonly used to demonstrate how logarithmic functions behave, especially their growth dynamics and intercepts.
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