Solve this set of nonlinear equation by hand (Newton's Method): f₁(x, y) = 4y² + 1.02x³ f₂(x, y) = -2.1x² + y² Use the initial values (1,0), to solve this problem by hand. Show only four steps by hand.
Solve this set of nonlinear equation by hand (Newton's Method): f₁(x, y) = 4y² + 1.02x³ f₂(x, y) = -2.1x² + y² Use the initial values (1,0), to solve this problem by hand. Show only four steps by hand.
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
Numerical Methods
Please can you solve this question?
![Quoted from LORAN (LOng RAnge Navigation) system
The LORAN (LOng RAnge Navigation) system calculates the position of a boat at sea using signals from fixed
transmitters. From the time differences of the incoming signals, the boat obtains differences of distances to the
transmitters. This leads to two equations each representing hyperbolas defined by the differences of distance of two
points (foci). An example of such equations are:
f₁(x, y) =
f₂(x, y) =
y²
300-186²
(y-500)²
2792
+
x2
186²
= 1
(x-300)²
(500²-279)²
= 1
Solving two quadratic equations with two unknowns, would require solving a 4 degree polynomial equation. We
could do this by hand, but for a navigational system to work well, it must do the calculations automatically and
numerically. We note that the Global Positioning System (GPS) works on similar principles and must do similar
computations.
Solve this set of nonlinear equation by hand (Newton's Method):
f₁(x, y) = 4y² + 1.02x³
f₂(x, y) = −2.1x² + y³
Use the initial values (1,0), to solve this problem by hand. Show only four steps by hand.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fb4d576a0-2860-44d0-806d-18a7bbab7702%2F3729dfbb-9aa1-4950-b787-961f1bd399be%2Fg7c4ze8_processed.png&w=3840&q=75)
Transcribed Image Text:Quoted from LORAN (LOng RAnge Navigation) system
The LORAN (LOng RAnge Navigation) system calculates the position of a boat at sea using signals from fixed
transmitters. From the time differences of the incoming signals, the boat obtains differences of distances to the
transmitters. This leads to two equations each representing hyperbolas defined by the differences of distance of two
points (foci). An example of such equations are:
f₁(x, y) =
f₂(x, y) =
y²
300-186²
(y-500)²
2792
+
x2
186²
= 1
(x-300)²
(500²-279)²
= 1
Solving two quadratic equations with two unknowns, would require solving a 4 degree polynomial equation. We
could do this by hand, but for a navigational system to work well, it must do the calculations automatically and
numerically. We note that the Global Positioning System (GPS) works on similar principles and must do similar
computations.
Solve this set of nonlinear equation by hand (Newton's Method):
f₁(x, y) = 4y² + 1.02x³
f₂(x, y) = −2.1x² + y³
Use the initial values (1,0), to solve this problem by hand. Show only four steps by hand.
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Follow-up Questions
Read through expert solutions to related follow-up questions below.
Follow-up Question
- Write a computer code (matlab, python, or c++) to solve this problem (your computer coding).
- Compare your computer coding and the hand calculations results.
![Quoted from LORAN (LOng RAnge Navigation) system
The LORAN (LOng RAnge Navigation) system calculates the position of a boat at sea using signals from fixed
transmitters. From the time differences of the incoming signals, the boat obtains differences of distances to the
transmitters. This leads to two equations each representing hyperbolas defined by the differences of distance of two
points (foci). An example of such equations are:
f₁(x, y)
f₂(x, y)
=
=
y²
300-186²
(y-500)²
2792
+
= 1
186²
(x-300)²
(500²-279)²
= 1
Solving two quadratic equations with two unknowns, would require solving a 4 degree polynomial equation. We
could do this by hand, but for a navigational system to work well, it must do the calculations automatically and
numerically. We note that the Global Positioning System (GPS) works on similar principles and must do similar
computations.
Solve this set of nonlinear equation by hand (Newton's Method):
f₁(x, y) = 4y² +1.02x³
f₂(x, y) = -2.1x² + y²
Use the initial values (1,0), to solve this problem by hand. Show only four steps by hand.
Write a computer code (matlab, python, or c++) to solve this problem (your computer coding).
Compare your computer coding and the hand calculations results.](https://content.bartleby.com/qna-images/question/b4d576a0-2860-44d0-806d-18a7bbab7702/1d486aee-9102-4ec1-8172-e5cef1be861b/uwcczea_thumbnail.png)
Transcribed Image Text:Quoted from LORAN (LOng RAnge Navigation) system
The LORAN (LOng RAnge Navigation) system calculates the position of a boat at sea using signals from fixed
transmitters. From the time differences of the incoming signals, the boat obtains differences of distances to the
transmitters. This leads to two equations each representing hyperbolas defined by the differences of distance of two
points (foci). An example of such equations are:
f₁(x, y)
f₂(x, y)
=
=
y²
300-186²
(y-500)²
2792
+
= 1
186²
(x-300)²
(500²-279)²
= 1
Solving two quadratic equations with two unknowns, would require solving a 4 degree polynomial equation. We
could do this by hand, but for a navigational system to work well, it must do the calculations automatically and
numerically. We note that the Global Positioning System (GPS) works on similar principles and must do similar
computations.
Solve this set of nonlinear equation by hand (Newton's Method):
f₁(x, y) = 4y² +1.02x³
f₂(x, y) = -2.1x² + y²
Use the initial values (1,0), to solve this problem by hand. Show only four steps by hand.
Write a computer code (matlab, python, or c++) to solve this problem (your computer coding).
Compare your computer coding and the hand calculations results.
Solution
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