Course Title | ## Mathematics 2 | ||

Course Code | ## MH1811 | ||

Offered | Study Year 1, Sem 1 | Study Year , Sem 2 | ||

Course Coordinators | Tan Geok Choo (Dr) | gctan@ntu.edu.sg | 6513 7452 |

Le Hai Khoi (Dr) | lhkhoi@ntu.edu.sg | 6513 7187 | |

Pre-requisites | MH1810 | ||

Co-requisites | MH1810 | ||

Mutually exclusive | MS2900,FE1007,MH1100,MH1101,MH1801 | ||

AU | 3 | ||

Contact hours | Lectures: 26, Tutorials: 12 | ||

Approved for delivery from | AY 2019/20 semester 1 | ||

Last revised | 21 Aug 2019, 15:12 |

This course extends the basic concepts of differentiation and integration learned in Mathematics 1 to the operations on functions of multiple variables. Advanced applications of differential and integral calculus are included. In addition, the course covers topics on sequences, series and ordinary differential equations.

This course aims to equip you with

• mathematical knowledge and analytical skills so that you are able to apply techniques of advanced calculus (along with their existing mathematical skills) to solve engineering or scientific problems whenever applicable;

• mathematical reading skills so that you can read and understand related mathematical content in the basic and popular scientific and engineering literature; and

• mathematical communication skills so that you can effectively and rigorously present your mathematical ideas to mathematicians, scientists and engineers.

Upon successfully completing this course, you should be able to:

- Express the general term of a sequence, determine and evaluate the limit of a convergent sequence, apply squeeze theorem for sequences, explain why a sequence is convergent or divergent.
- Manipulate basic series such as geometric series, telescoping series and determine its convergence and sum. Identify properties of convergent and divergent series.
- Determine whether a series is divergent by Divergence Test. Apply alternating test to determine an alternating series is convergent. Apply integral test, comparison test and limit comparison test, ratio test, and root test appropriately to series to determine convergence of series with positive terms. Determine absolute, conditional or divergence of a general series,
- Manipulate some power series related to geometric series; determine the radius and the interval of convergence for power series. Apply term-by-term differentiation and integration of power series. Apply power series to approximation.
- Evaluate Taylor’s series (Maclaurin series) of functions, including exponential and sine functions. Determine Taylor series of some functions using known Taylor series. Use the Taylor’s Remainder Theorem and Estimation theorem to determine the upper bound of the estimation error of a series.
- Determine the domain of simple 2-variable function and sketch the domain and level curve.
- Evaluate the limits of 2-variable and 3-variable functions; explain why the limit does not exist.
- Interpret the concept and meaning of partial derivative and evaluate partial derivatives. Apply Chain rule for partial differentiation.
- Evaluate the gradient vector and use its orthogonality to determine the equation of tangent plane to a level surface and the graph z=f(x,y). Determine the equation of normal line. Apply the equation of tangent plane to z=f(x,y) to linear approximation. Use total differential to approximate the errors or changes.
- Evaluate directional derivative, and use it to determine rate of change.
- Find stationary points and classify them as local maximum, minimum or saddle points.
- Use Lagrange Multiplier method to determine global maximum or minimum of a function subject to an equality constraint. Apply the method to solve optimization problems.
- Sketch the region of integration for 2-variable function and evaluate double integral, and apply it to some problems. Generalize the concept of double integral to triple integrals.
- Solve separable first order ordinary differential equations (ODEs), homogeneous first order ODEs, first order linear ODEs by integrating factors, Bernoulli's equations and exact ODEs.
- Solve linear homogeneous second order ODEs with constant real-number coefficients. Use undetermined coefficient method and method of variation of parameters to find a particular solution to non-homogeneous second order ODEs with constant real-number coefficients. Obtain the general solution for a non-homogeneous second order ODEs with constant real-number coefficients.
- Apply ODEs to model and solve simple practical problems.

Sequences -- convergence and Limit Evaluation

Series -- Geometric series, telescoping series, harmonic series and applications

Series (Convergence Test): Comparison Tests, Ratio and Root Test, Integral test, Alternating Series Test, Absolute and conditional convergence.

Power Series & Applications: Radiu and Interval of Convergence, Differentiation and Integration of Power Series

Taylor Series: Evaluation and Applications

Functions of 2 or 3 variables, Domain & Level Sets, Limits and Continuity

Partial Derivatives, Gradient Vectors, Applications

Directional Derivatives & Applications

Classify stationary points. Lagrange Multiplier Method

Double Integration

First order Ordinary Differential Equations -- Separable, Linear, Bernouli, Homogeneous, Exact

Second Order Homogeneous Ordinary Differential Equations: with constant coefficients.

Second Order Non-Homogeneous Ordinary Differential Equations: Undetermined Coefficients, Variation of Parameters

Component | Course ILOs tested | EAB Graduate Attributes tested | Weighting | Team / Individual | Assessment Rubrics |
---|---|---|---|---|---|

Continuous Assessment | |||||

Mid-semester Quiz | |||||

Two Common Tests (each 20%) | 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 | a, b | 40 | individual | See Appendix for rubric |

Examination (2 hours) | |||||

Written Examination | 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 | a, b | 60 | individual | See Appendix for rubric |

Total | 100% |

Category | Core | ||||||||||||

EAB's 12 Graduate Attributes* | |||||||||||||

| |||||||||||||

Overall statement | |||||||||||||

This course extends the basic concepts of differentiation and integration learned in Mathematics 1 to the operations on functions of multiple variables. Advanced applications of differential and integral calculus are included. In addition, the course covers topics on sequences, series and ordinary differential equations. This course aims to equip you with • mathematical knowledge and analytical skills so that you are able to apply techniques of advanced calculus (along with their existing mathematical skills) to solve engineering or scientific problems whenever applicable; • mathematical reading skills so that you can read and understand related mathematical content in the basic and popular scientific and engineering literature; and • mathematical communication skills so that you can effectively and rigorously present your mathematical ideas to mathematicians, scientists and engineers. | |||||||||||||

Course Student Learning Outcomes | EAB Graduate Attributes | ||||||||||||

1 | Express the general term of a sequence, determine and evaluate the limit of a convergent sequence, apply squeeze theorem for sequences, explain why a sequence is convergent or divergent. | a, b | |||||||||||

2 | Manipulate basic series such as geometric series, telescoping series and determine its convergence and sum. Identify properties of convergent and divergent series. | a, b | |||||||||||

3 | Determine whether a series is divergent by Divergence Test. Apply alternating test to determine an alternating series is convergent. Apply integral test, comparison test and limit comparison test, ratio test, and root test appropriately to series to determine convergence of series with positive terms. Determine absolute, conditional or divergence of a general series, | a, b | |||||||||||

4 | Manipulate some power series related to geometric series; determine the radius and the interval of convergence for power series. Apply term-by-term differentiation and integration of power series. Apply power series to approximation. | a, b | |||||||||||

5 | Evaluate Taylor’s series (Maclaurin series) of functions, including exponential and sine functions. Determine Taylor series of some functions using known Taylor series. Use the Taylor’s Remainder Theorem and Estimation theorem to determine the upper bound of the estimation error of a series. | a, b | |||||||||||

6 | Determine the domain of simple 2-variable function and sketch the domain and level curve. | a, b | |||||||||||

7 | Evaluate the limits of 2-variable and 3-variable functions; explain why the limit does not exist. | a, b | |||||||||||

8 | Interpret the concept and meaning of partial derivative and evaluate partial derivatives. Apply Chain rule for partial differentiation. | a, b | |||||||||||

9 | Evaluate the gradient vector and use its orthogonality to determine the equation of tangent plane to a level surface and the graph z=f(x,y). Determine the equation of normal line. Apply the equation of tangent plane to z=f(x,y) to linear approximation. Use total differential to approximate the errors or changes. | a, b | |||||||||||

10 | Evaluate directional derivative, and use it to determine rate of change. | a, b | |||||||||||

11 | Find stationary points and classify them as local maximum, minimum or saddle points. | a, b | |||||||||||

12 | Use Lagrange Multiplier method to determine global maximum or minimum of a function subject to an equality constraint. Apply the method to solve optimization problems. | a, b | |||||||||||

13 | Sketch the region of integration for 2-variable function and evaluate double integral, and apply it to some problems. Generalize the concept of double integral to triple integrals. | a, b | |||||||||||

14 | Solve separable first order ordinary differential equations (ODEs), homogeneous first order ODEs, first order linear ODEs by integrating factors, Bernoulli's equations and exact ODEs. | a, b | |||||||||||

15 | Solve linear homogeneous second order ODEs with constant real-number coefficients. Use undetermined coefficient method and method of variation of parameters to find a particular solution to non-homogeneous second order ODEs with constant real-number coefficients. Obtain the general solution for a non-homogeneous second order ODEs with constant real-number coefficients. | a, b | |||||||||||

16 | Apply ODEs to model and solve simple practical problems. | a, b |

*Legend:

Fully consistent | (contributes to more than 75% of Student Learning Outcomes) | |

Partially consistent | (contributes to about 50% of Student Learning Outcomes) | |

Weakly consistent | (contributes to about 25% of Student Learning Outcomes) | |

[Blank] | Not related to Student Learning Outcomes |

The graduate attributes as stipulated by the EAB, are:

**Engineering knowledge:**Apply the knowledge of mathematics, natural science, engineering fundamentals, and an engineering specialisation to the solution of complex engineering problems.**Problem Analysis:**Identify, formulate, research literature, and analyse complex engineering problems reaching substantiated conclusions using first principles of mathematics, natural sciences, and engineering sciences.**Design/development of Solutions:**Design solutions for complex engineering problems and design system components or processes that meet the specified needs with appropriate consideration for public health and safety , cultural, societal, and environmental considerations.**Investigation:**Conduct investigations of complex problems using research-based knowledge and research methods including design of experiments, analysis and interpretation of data, and synthesis of the information to provide valid conclusions.**Modern Tool Usage:**Create, select, and apply appropriate techniques, resources, and modern engineering and IT tools including prediction and modelling to complex engineering activities with an understanding of the limitations.**The engineer and Society:**Apply reasoning informed by the contextual knowledge to assess societal, health, safety, legal, and cultural issues and the consequent responsibilities relevant to the professional engineering practice.**Environment and Sustainability:**Understand the impact of the professional engineering solutions in societal and environmental contexts, and demonstrate the knowledge of, and need for the sustainable development.**Ethics:**Apply ethical principles and commit to professional ethics and responsibilities and norms of the engineering practice.**Individual and Team Work:**Function effectively as an individual, and as a member or leader in diverse teams and in multidisciplinary settings.**Communication:**Communicate effectively on complex engineering activities with the engineering community and with society at large, such as, being able to comprehend and write effective reports and design documentation, make effective presentations, and give and receive clear instructions.**Project Management and Finance:**Demonstrate knowledge and understanding of the engineering and management principles and economic decision-making, and apply these to one's own work, as a member and leader in a team, to manage projects and in multidisciplinary envir onments.**Life-long Learning:**Recognise the need for, and have the preparation and ability to engage in independent and life-long learning in the broadest context of technological change.

Instructors and tutors will discuss tutorial solution and common mistakes in student work during tutorial sessions or lectures or via online materials.

Lectures (26 hours) | Derivation of formulas and demonstrating problem solving: Problem solving: Peer Instruction: |

Tutorials (12 hours) | Derivation of formulas and demonstrating problem solving: Problem solving: Peer Instruction: |

TEXT

Thomas’ Calculus, 13th edt, Thomas, GB Jr., Weir MD and Hass J, Pearson-Addison-Wesley, 978-1292089799, 2016REFERENCE

Calculus (International Student Edition), 6th edt, James Stewart, Thomson, 9780495482826 Brooks/Cole

Absence Due to Medical or Other Reasons

If you are unable to attend a common test with a valid reason, you have to:

1. Send an email to the instructor regarding the absence.

2. Submit the original Medical Certificate* or documents (if it is not due to medical reason) to administrator (in School Office).* The medical certificate mentioned above should be issued in Singapore by a medical practitioner registered with the Singapore Medical Association.

Good academic work depends on honesty and ethical behaviour. The quality of your work as a student relies on adhering to the principles of academic integrity and to the NTU Honour Code, a set of values shared by the whole university community. Truth, Trust and Justice are at the core of NTU’s shared values.

As a student, it is important that you recognize your responsibilities in understanding and applying the principles of academic integrity in all the work you do at NTU. Not knowing what is involved in maintaining academic integrity does not excuse academic dishonesty. You need to actively equip yourself with strategies to avoid all forms of academic dishonesty, including plagiarism, academic fraud, collusion and cheating. If you are uncertain of the definitions of any of these terms, you should go to the Academic Integrity website for more information. Consult your instructor(s) if you need any clarification about the requirements of academic integrity in the course.

Instructor | Office Location | Phone | |
---|---|---|---|

Le Hai Khoi (Dr) | MAS-05-41 | 6513 7187 | lhkhoi@ntu.edu.sg |

Tan Geok Choo (Dr) | SPMS-MAS-04-12 | 6513 7452 | gctan@ntu.edu.sg |

Week | Topic | Course ILO | Readings/ Activities |
---|---|---|---|

1 | Sequences | 1 | Lecture |

2 | Sequences & Series | 1, 2 | Tutorial 1 |

3 | Series (Convergence Test) | 2, 3 | Tutorial 2 |

4 | Power Series | 4 | Tutorial 3 |

5 | Taylor Series | 5 | Tutorial 4 |

6 | Functions of 2 or 3 variables, Limits | 6, 7 | Tutorial 5 |

7 | Partial Derivatives, Gradient Vectors | 8, 9 | Tutorial 6 |

8 | Applications Directional Derivatives & Applications | 9, 10 | Tutorial 7 |

9 | Classify stationary points. Lagrange Multiplier Method | 11, 12 | Tutorial 8 |

10 | Double Integration | 13 | Tutorial 9 |

11 | Double Integration/ODE | 13, 14, 15 | Tutorial 10 |

12 | ODE | 14, 15, 16 | Tutorial 11 |

13 | ODE | 14, 15, 16 | Tutorial 12 |