Gaussian elimination with partial pivoting.
LU decomposition, i.e. A=LU.
(P^T)LU decomposition, i.e. PA=LU.
Wednesday, October 26, 2016
Thursday, October 20, 2016
Lecture 14 (Oct 21)
Lecture cancelled due to the weather condition.
HW4 due Oct 25 (Tue) or 26 (Wed):
Chapter 1: #29,30,31,32,33,34(a-d),35
Midterm will cover everything up to, including, materials from Lecture 12. Will NOT cover Gaussian Elimination.
HW4 due Oct 25 (Tue) or 26 (Wed):
Chapter 1: #29,30,31,
Wednesday, October 19, 2016
Lecture 13 (Oct 19)
Gaussian elimination with backward substitution.
Operations count.
Operations count.
Friday, October 14, 2016
Lecture 12 (Oct 14)
Composite rules. Gaussian Quadrature.
Wednesday, October 12, 2016
Midterm
Date: Oct 28 (Friday)
Time: 130pm-230pm
Venue: Room 2407
Closed book and closed note.
No calculator.
Test up to and including materials from the lecture onOct 21 (Friday) Oct 14 (Friday).
Time: 130pm-230pm
Venue: Room 2407
Closed book and closed note.
No calculator.
Test up to and including materials from the lecture on
Lecture 11 (Oct 12)
Numerical integration: Trapezoidal rule, Midpoint rule, Simpson's rule. Their derivation based on polynomial interpolation and Taylor's expansion.
Degree of accuracy.
Composite rules.
Degree of accuracy.
Composite rules.
Monday, October 10, 2016
HW4
Chapter 1: #29-33,34(a-d),35
Due: Oct 25 (Tue) or 26 (Wed) in your tutorial.
Midterm will cover every up to, and including, this HW set.
Due: Oct 25 (Tue) or 26 (Wed) in your tutorial.
Midterm will cover every up to, and including, this HW set.
Friday, October 7, 2016
Lecture 10 (Oct 7)
Numerical differentiation.
Approach 2: Taylor's expansion.
Higher order derivatives.
Approach 2: Taylor's expansion.
Higher order derivatives.
Tuesday, October 4, 2016
Lecture 9 (Oct 5)
Numerical differentiation:
Approach 1: Given data points -> interpolating polynomial -> differentiate it and evaluate it at a given location.
Forward difference, backward difference, central difference.
Error bound based on polynomial interpolation.
Approach 1: Given data points -> interpolating polynomial -> differentiate it and evaluate it at a given location.
Forward difference, backward difference, central difference.
Error bound based on polynomial interpolation.
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