Show that f(r) = O(|x – xo|*) and g(x) = o(]x – roP) imply f. g(x) = o(|x – xo]k+i). - -
Show that f(r) = O(|x – xo|*) and g(x) = o(]x – roP) imply f. g(x) = o(|x – xo]k+i). - -
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
Related questions
Question
![**Problem Statement for Educational Purposes**
**Objective:** Demonstrate the following mathematical relationship:
Given that \( f(x) = O(|x - x_0|^k) \) and \( g(x) = o(|x - x_0|^j) \), prove that \( f \cdot g(x) = o(|x - x_0|^{k+j}) \).
*Explanation of Terms:*
- \( O \) notation (Big O) is used to describe an upper bound on the growth rate of a function as \( x \) approaches \( x_0 \).
- \( o \) notation (little o) describes a function that grows significantly slower than another as \( x \) approaches \( x_0 \).
**Instructions for Proof:**
1. **Interpret the assertion:**
- \( f(x) = O(|x - x_0|^k) \) implies that there exists a constant \( C > 0 \) and a neighborhood around \( x_0 \) such that \( |f(x)| \leq C|x - x_0|^k \) for values of \( x \) in this neighborhood.
- \( g(x) = o(|x - x_0|^j) \) implies that for any \( \epsilon > 0 \), there exists a neighborhood around \( x_0 \) such that \( |g(x)| < \epsilon |x - x_0|^j \) for values of \( x \) in this neighborhood.
2. **Combine the functions:**
- Analyze the product \( f(x) \cdot g(x) \).
- Utilize the definitions of \( O \) and \( o \) to prove that this product satisfies the condition \( o(|x - x_0|^{k+j}) \).
**Note:** This type of proof typically involves manipulations and inequalities to show that the product of \( f(x) \) and \( g(x) \) indeed behaves as described by the little o notation for the combined powers \( k+j \).](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fe378cba8-62c2-4aa2-b207-bb237650cd78%2F16c78dac-d3ac-4b68-8549-a45e38579436%2For8o6mg_processed.png&w=3840&q=75)
Transcribed Image Text:**Problem Statement for Educational Purposes**
**Objective:** Demonstrate the following mathematical relationship:
Given that \( f(x) = O(|x - x_0|^k) \) and \( g(x) = o(|x - x_0|^j) \), prove that \( f \cdot g(x) = o(|x - x_0|^{k+j}) \).
*Explanation of Terms:*
- \( O \) notation (Big O) is used to describe an upper bound on the growth rate of a function as \( x \) approaches \( x_0 \).
- \( o \) notation (little o) describes a function that grows significantly slower than another as \( x \) approaches \( x_0 \).
**Instructions for Proof:**
1. **Interpret the assertion:**
- \( f(x) = O(|x - x_0|^k) \) implies that there exists a constant \( C > 0 \) and a neighborhood around \( x_0 \) such that \( |f(x)| \leq C|x - x_0|^k \) for values of \( x \) in this neighborhood.
- \( g(x) = o(|x - x_0|^j) \) implies that for any \( \epsilon > 0 \), there exists a neighborhood around \( x_0 \) such that \( |g(x)| < \epsilon |x - x_0|^j \) for values of \( x \) in this neighborhood.
2. **Combine the functions:**
- Analyze the product \( f(x) \cdot g(x) \).
- Utilize the definitions of \( O \) and \( o \) to prove that this product satisfies the condition \( o(|x - x_0|^{k+j}) \).
**Note:** This type of proof typically involves manipulations and inequalities to show that the product of \( f(x) \) and \( g(x) \) indeed behaves as described by the little o notation for the combined powers \( k+j \).
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