Course Syllabus

Course Information：

Year-Semester Course Number Course Name Phase Credits Hours Required/Elective Instructor Class Student NO. Withdraw Note

Spring Semester
Year 2026 359747 Numerical Methods 1 3.0 3 ★ Jui-Ching Cheng 4EN3A
4EN3B 16 0 電子大三合開

Year-Semester	Course Number	Course Name	Phase	Credits	Hours	Required/Elective	Instructor	Class	Student NO.	Withdraw	Note
Spring Semester Year 2026	359747	Numerical Methods	1	3.0	3	★	Jui-Ching Cheng	4EN3A 4EN3B	16	0	電子大三合開

Course Plan：

Instructor Jui-Ching Cheng　Office Hours

Email juiching@ntut.edu.tw

Last Updated 2025-12-18 17:30:33

Course Objective Engineering problems always involve complicated mathematics. Traditionally, solving mathematical equations requires elaborating process of derivation and induction of formula which require students to spend a long time to learn and master the skills and still not every student can achieve the level of expertise to solve these complicated equations. Moreover, many of these equations are not able to solve analytically. With the advance of computing technologies, an ordinary student, when helped by suitable software, can solve those equations which only gifted students could solve before. Not only that, those equations not solvable analytically can be solved today numerically. The purpose of this course is to train undergraduate students to solve engineering problems by using computers. Students will learn not only the theoretical background of numerical methods but also the popular engineering software MATLAB in this class. The choice of MATLAB instead of programming language like FORTRAN, C, or C++ is because MATLAB not only provides an abundant repertoire of programs for solving all kinds of engineering problems but also is a programming language that students use to create his own programs. This will equip students with a powerful tool no matter for higher study or an engineering career in the future. The contents include the following topics. 1. Introduction to numerical method and MATLAB: give introductory examples, useful background material, identification of some basic issues and an introduction of computation and programming with MATLAB. 2. Roots of Equations: deals with finding the zeros of a nonlinear function of one variable, as well as methods for minimization of such a function. 3. Linear Algebra and Matrices: treat topics from numerical linear algebra. Include solving systems of linear equations, factorization of matrices and matrix inversion. 4. Curve Fitting: deals with finding an equation that fits a set of points by linear least-square and nonlinear regression. Include polynomial regression, multiple linear regression, general linear least-square regression, QR factorization and the backslash operator, and nonlinear regression. 5. Interpolation: include Newton interpolation, Lagrange interpolation and splines. 6. Numerical Integration: give the formula for integrating a function that can not be analytically integrated. Include Newton-Cotes formula, the trapezoidal rule, Simpson’s rule, Romberg integration and Gauss quadrature. 7. Ordinary Differential Equations: many engineering problems are solved in ODE form. This is always the most difficult parts of numerical methods. This chapter gives the technique for solving ODE. Include Euler’s method, Runge-Kutta method, multi-step method. 8. Eigenvalues: gives the technique for finding eigenvalues. Include polynomial method and power method.

Course Schedule 1. Introduction to numerical methods and MATLAB 2. Roots of equations 3. Gauss elimination 4. LU decomposition 5. Matrix inversion and condition 6. Iterative methods for systems of equations 7. Curve fitting of a straight line 8. General linear least-square regression and 9. Nonlinear regression 10. Polynomial interpolation and splines 11. Numerical integration fomulas 12. Numerical integration of functions 13. ODE: Euler's method 14. ODE: Runge-Kutta method 15. ODE: Multi-step methods 16. ODE: adaptive methods 17. Eigenvalues: polynomial method 18. Eigenvalues: power method

Evaluation and grading policy 16 Weekly programming home work: 80%. Programming capability evaluation: 20%.

Materials All right reserved. Do not reproduce without permission.

Foreign-language textbooks:Yes
Textbook: Chapra, “Applied Numerical Methods with MATLAB for Engineers and Scientists, 3nd Edition.”, McGraw-Hill. Classnote: https://drive.google.com/file/d/1q6Dm0QGCRxEbEsg35AdY2_R51JtqjWiN/view?usp=sharing

The access to curricular consultation Office Hours: 15:00~18:00, Monday and Thursday.

Expanding teaching and resources

The course corresponds to the SDGs 無（None）

Does the course incorporate AI ● 無（None）

Note
Google Meet Link: https://meet.google.com/ebc-pfrz-qna
因需要上機，維持在綜科104上課，不受學校17和18周改為線上教學影響。

Instructor	Jui-Ching Cheng　Office Hours
Email	juiching@ntut.edu.tw
Last Updated	2025-12-18 17:30:33
Course Objective	Engineering problems always involve complicated mathematics. Traditionally, solving mathematical equations requires elaborating process of derivation and induction of formula which require students to spend a long time to learn and master the skills and still not every student can achieve the level of expertise to solve these complicated equations. Moreover, many of these equations are not able to solve analytically. With the advance of computing technologies, an ordinary student, when helped by suitable software, can solve those equations which only gifted students could solve before. Not only that, those equations not solvable analytically can be solved today numerically. The purpose of this course is to train undergraduate students to solve engineering problems by using computers. Students will learn not only the theoretical background of numerical methods but also the popular engineering software MATLAB in this class. The choice of MATLAB instead of programming language like FORTRAN, C, or C++ is because MATLAB not only provides an abundant repertoire of programs for solving all kinds of engineering problems but also is a programming language that students use to create his own programs. This will equip students with a powerful tool no matter for higher study or an engineering career in the future. The contents include the following topics. 1. Introduction to numerical method and MATLAB: give introductory examples, useful background material, identification of some basic issues and an introduction of computation and programming with MATLAB. 2. Roots of Equations: deals with finding the zeros of a nonlinear function of one variable, as well as methods for minimization of such a function. 3. Linear Algebra and Matrices: treat topics from numerical linear algebra. Include solving systems of linear equations, factorization of matrices and matrix inversion. 4. Curve Fitting: deals with finding an equation that fits a set of points by linear least-square and nonlinear regression. Include polynomial regression, multiple linear regression, general linear least-square regression, QR factorization and the backslash operator, and nonlinear regression. 5. Interpolation: include Newton interpolation, Lagrange interpolation and splines. 6. Numerical Integration: give the formula for integrating a function that can not be analytically integrated. Include Newton-Cotes formula, the trapezoidal rule, Simpson’s rule, Romberg integration and Gauss quadrature. 7. Ordinary Differential Equations: many engineering problems are solved in ODE form. This is always the most difficult parts of numerical methods. This chapter gives the technique for solving ODE. Include Euler’s method, Runge-Kutta method, multi-step method. 8. Eigenvalues: gives the technique for finding eigenvalues. Include polynomial method and power method.
Course Schedule	1. Introduction to numerical methods and MATLAB 2. Roots of equations 3. Gauss elimination 4. LU decomposition 5. Matrix inversion and condition 6. Iterative methods for systems of equations 7. Curve fitting of a straight line 8. General linear least-square regression and 9. Nonlinear regression 10. Polynomial interpolation and splines 11. Numerical integration fomulas 12. Numerical integration of functions 13. ODE: Euler's method 14. ODE: Runge-Kutta method 15. ODE: Multi-step methods 16. ODE: adaptive methods 17. Eigenvalues: polynomial method 18. Eigenvalues: power method
Evaluation and grading policy	16 Weekly programming home work: 80%. Programming capability evaluation: 20%.
Materials	All right reserved. Do not reproduce without permission. Foreign-language textbooks:Yes Textbook: Chapra, “Applied Numerical Methods with MATLAB for Engineers and Scientists, 3nd Edition.”, McGraw-Hill. Classnote: https://drive.google.com/file/d/1q6Dm0QGCRxEbEsg35AdY2_R51JtqjWiN/view?usp=sharing
The access to curricular consultation	Office Hours: 15:00~18:00, Monday and Thursday.
Expanding teaching and resources
The course corresponds to the SDGs	無（None）
Does the course incorporate AI	● 無（None）
Note	Google Meet Link: https://meet.google.com/ebc-pfrz-qna 因需要上機，維持在綜科104上課，不受學校17和18周改為線上教學影響。