1 Problem 12 (2.1) from the textbook [10 points] Let f(x) = (x+2)(x+1)²x(x − 1)³ (x-2). To which zero of ƒ does the bisection method converge when applied on the following intervals? (a) [-1.5,2.5], (b) [-0.5, 2.4]. In your solution, please justify your answers. 2 Problem 14 (2.1) from the textbook [10 points] Find an approximation to √3 correct to within 10-4 using the Bisection Algorithm. You can use the code from the lecture, your own program, or just a calculator. Problem 18 (2.1) from the textbook [10 points] Use Theorem 2.1 to find a bound for the number of iterations needed to achieve an approximation with accuracy 10-3 to the solution of x3 + x − 4 = 0 lying in the interval [1,4]. 4 Problem 10 (2.2) from the textbook [10 points] Use Theorem 2.3 to show that g(x) = 2 has a unique fixed point on iteration to find an approximation to the fixed point accurate to within 10 5 Problem (exam question) [10 points] [,1]. Use fixed-point Let g(x) = 1 100 (sin(sin(x)) + x)+7. (a) Define the fixed point of g. (b) Prove that g has an unique fixed point in the interval [6.5, 7.5].
1 Problem 12 (2.1) from the textbook [10 points] Let f(x) = (x+2)(x+1)²x(x − 1)³ (x-2). To which zero of ƒ does the bisection method converge when applied on the following intervals? (a) [-1.5,2.5], (b) [-0.5, 2.4]. In your solution, please justify your answers. 2 Problem 14 (2.1) from the textbook [10 points] Find an approximation to √3 correct to within 10-4 using the Bisection Algorithm. You can use the code from the lecture, your own program, or just a calculator. Problem 18 (2.1) from the textbook [10 points] Use Theorem 2.1 to find a bound for the number of iterations needed to achieve an approximation with accuracy 10-3 to the solution of x3 + x − 4 = 0 lying in the interval [1,4]. 4 Problem 10 (2.2) from the textbook [10 points] Use Theorem 2.3 to show that g(x) = 2 has a unique fixed point on iteration to find an approximation to the fixed point accurate to within 10 5 Problem (exam question) [10 points] [,1]. Use fixed-point Let g(x) = 1 100 (sin(sin(x)) + x)+7. (a) Define the fixed point of g. (b) Prove that g has an unique fixed point in the interval [6.5, 7.5].
Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter4: Polynomial And Rational Functions
Section4.5: Rational Functions
Problem 48E
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Numerical an
![1
Problem 12 (2.1) from the textbook [10 points]
Let f(x) = (x+2)(x+1)²x(x − 1)³ (x-2). To which zero of ƒ does the bisection method converge
when applied on the following intervals?
(a) [-1.5,2.5],
(b) [-0.5, 2.4].
In your solution, please justify your answers.
2 Problem 14 (2.1) from the textbook [10 points]
Find an approximation to √3 correct to within 10-4 using the Bisection Algorithm. You can use
the code from the lecture, your own program, or just a calculator.
Problem 18 (2.1) from the textbook [10 points]
Use Theorem 2.1 to find a bound for the number of iterations needed to achieve an approximation
with accuracy 10-3 to the solution of x3 + x − 4 = 0 lying in the interval [1,4].
4 Problem 10 (2.2) from the textbook [10 points]
Use Theorem 2.3 to show that g(x) = 2 has a unique fixed point on
iteration to find an approximation to the fixed point accurate to within 10
5 Problem (exam question) [10 points]
[,1]. Use fixed-point
Let
g(x) =
1
100
(sin(sin(x)) + x)+7.
(a) Define the fixed point of
g.
(b) Prove that g has an unique fixed point in the interval [6.5, 7.5].](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fd597ffd2-5c4b-4c2e-8332-77ce1607dac1%2F633173d8-d8f8-4b88-be9d-8ebc63a1caf5%2F55wdvms_processed.jpeg&w=3840&q=75)
Transcribed Image Text:1
Problem 12 (2.1) from the textbook [10 points]
Let f(x) = (x+2)(x+1)²x(x − 1)³ (x-2). To which zero of ƒ does the bisection method converge
when applied on the following intervals?
(a) [-1.5,2.5],
(b) [-0.5, 2.4].
In your solution, please justify your answers.
2 Problem 14 (2.1) from the textbook [10 points]
Find an approximation to √3 correct to within 10-4 using the Bisection Algorithm. You can use
the code from the lecture, your own program, or just a calculator.
Problem 18 (2.1) from the textbook [10 points]
Use Theorem 2.1 to find a bound for the number of iterations needed to achieve an approximation
with accuracy 10-3 to the solution of x3 + x − 4 = 0 lying in the interval [1,4].
4 Problem 10 (2.2) from the textbook [10 points]
Use Theorem 2.3 to show that g(x) = 2 has a unique fixed point on
iteration to find an approximation to the fixed point accurate to within 10
5 Problem (exam question) [10 points]
[,1]. Use fixed-point
Let
g(x) =
1
100
(sin(sin(x)) + x)+7.
(a) Define the fixed point of
g.
(b) Prove that g has an unique fixed point in the interval [6.5, 7.5].
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