5. Manually use Bisection iterative technique with 6 iterations to find a root of vr(t) in the intervals [0.3 :0.7] and [-1: -5]. Calculate the percentage of error. Show details of your steps.

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
icon
Related questions
icon
Concept explainers
Question

Answer this question. Part (5).

Analysis 2: The voltage potential, v(t), builds up on the loops, based on the orientation of the magnetic
field during an MR scan is given by:
v(t) = 0.250t+ + 0.166t³ – 0.500
and the voltage at time t= 0 is 0.
1. Formulate the mathematical model for the voltage rate vr(t) developed at the loops during
scanning.
2. Plot/Sketch vr(t) as a function of time t E [-4 : 4].
3. Find the roots of vr(t) analytically.
4. Use your figure to study the sign of vr(t) in the time interval [-4 : 4]. Does vr(t) have any root in the
interval [-4 : 4]? If yes, estimate the roots graphically.
5. Manually use Bisection iterative technique with 6 iterations to find a root of vr(t) in the intervals
[0.3 : 0.7] and [-1 :-5]. Calculate the percentage of error. Show details of your steps.
6. Manually use Newton-Raphson iterative technique with 6 iterations to find a root of vr(t) in the
intervals [0.3 : 0.7] and [-1 : -5]. Calculate the percentage of error. Show details of your steps.
Transcribed Image Text:Analysis 2: The voltage potential, v(t), builds up on the loops, based on the orientation of the magnetic field during an MR scan is given by: v(t) = 0.250t+ + 0.166t³ – 0.500 and the voltage at time t= 0 is 0. 1. Formulate the mathematical model for the voltage rate vr(t) developed at the loops during scanning. 2. Plot/Sketch vr(t) as a function of time t E [-4 : 4]. 3. Find the roots of vr(t) analytically. 4. Use your figure to study the sign of vr(t) in the time interval [-4 : 4]. Does vr(t) have any root in the interval [-4 : 4]? If yes, estimate the roots graphically. 5. Manually use Bisection iterative technique with 6 iterations to find a root of vr(t) in the intervals [0.3 : 0.7] and [-1 :-5]. Calculate the percentage of error. Show details of your steps. 6. Manually use Newton-Raphson iterative technique with 6 iterations to find a root of vr(t) in the intervals [0.3 : 0.7] and [-1 : -5]. Calculate the percentage of error. Show details of your steps.
Derivative of a function f(t)with respect to r is the measure of how fast the function is changing
with respect to 1. Mathematically the derivative at a point is defined asf (1) = lim
f) > 0, the function is increasing with respect to 1, similarly if f (t) < 0 the function is
decreasing with respect to t.
h-0
According to the standard results, the derivative of the " is 4" = nt-1, where n is an integer.
If a is a constant, then derivative of function in the form af(1) is 4 (af(t) = af (t).
The equation for magnetic field that developed under the presence of magnetic field is given
by v(1) = 0. 250r* + 0. 166r² – 0. 500r². To find a mathematical model for the voltage rate,
differentiate the function v(t) with respect to time. Use the result 4 = nt"-l to simplify the
expression.
vr(t)= (0. 250r* + 0. 166r° – 0. 500/')
=0. 250r + 0. 1664 – 0. 5004
=0. 250 - 41 + 0. 166 - 31 – 0. 500 - 21
=1.000 + 0. 49872 – 1.000t
Transcribed Image Text:Derivative of a function f(t)with respect to r is the measure of how fast the function is changing with respect to 1. Mathematically the derivative at a point is defined asf (1) = lim f) > 0, the function is increasing with respect to 1, similarly if f (t) < 0 the function is decreasing with respect to t. h-0 According to the standard results, the derivative of the " is 4" = nt-1, where n is an integer. If a is a constant, then derivative of function in the form af(1) is 4 (af(t) = af (t). The equation for magnetic field that developed under the presence of magnetic field is given by v(1) = 0. 250r* + 0. 166r² – 0. 500r². To find a mathematical model for the voltage rate, differentiate the function v(t) with respect to time. Use the result 4 = nt"-l to simplify the expression. vr(t)= (0. 250r* + 0. 166r° – 0. 500/') =0. 250r + 0. 1664 – 0. 5004 =0. 250 - 41 + 0. 166 - 31 – 0. 500 - 21 =1.000 + 0. 49872 – 1.000t
Expert Solution
steps

Step by step

Solved in 4 steps

Blurred answer
Knowledge Booster
Points, Lines and Planes
Learn more about
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, advanced-math and related others by exploring similar questions and additional content below.
Recommended textbooks for you
Advanced Engineering Mathematics
Advanced Engineering Mathematics
Advanced Math
ISBN:
9780470458365
Author:
Erwin Kreyszig
Publisher:
Wiley, John & Sons, Incorporated
Numerical Methods for Engineers
Numerical Methods for Engineers
Advanced Math
ISBN:
9780073397924
Author:
Steven C. Chapra Dr., Raymond P. Canale
Publisher:
McGraw-Hill Education
Introductory Mathematics for Engineering Applicat…
Introductory Mathematics for Engineering Applicat…
Advanced Math
ISBN:
9781118141809
Author:
Nathan Klingbeil
Publisher:
WILEY
Mathematics For Machine Technology
Mathematics For Machine Technology
Advanced Math
ISBN:
9781337798310
Author:
Peterson, John.
Publisher:
Cengage Learning,
Basic Technical Mathematics
Basic Technical Mathematics
Advanced Math
ISBN:
9780134437705
Author:
Washington
Publisher:
PEARSON
Topology
Topology
Advanced Math
ISBN:
9780134689517
Author:
Munkres, James R.
Publisher:
Pearson,