Develop important mathematical thinking and problem solving skills as engineering technicians based on the mathematics learned previously. The goal of this class is for students to acquire the ability to understand more specialized applied mathematics.
(1) First, understand the convergence of a sequence, the convergence and divergence of a series, and the Maclaurin series. Then understand the function of two variables as a curved surface in space, and are able to calculate partial differentials and multiple integrals.
(2) Acquire a faithful understanding of theories and the ability to express them theoretically.
(3) Acquire the ability to apply an abstract framework to specific issues.
Outline:
Students will acquire the basic concepts of differential integration and the various computational methods developed from it, and the necessary resources for analyzing various events in the specialized fields. We will mainly teach the convergence and divergence of a sequence, the convergence and divergence of a series, the evolution of the Maclaurin series, the partial differentiation of a two-variable function and its application, and the application of double integrals.
Style:
Classes will assume the pre-study has been done, and follow the textbook accordingly. There will also be problem exercises. Students will be asked questions to check their understanding during classes. In the classes, focus on understanding, and ask questions about things do not understand in the pre-study or class, rather than doing nothing about them. Make an effort to always review the material on the same day, and solve the problems in the textbook and the workbook. Some of the classes will use ICT. Tests will sometimes be held without prior notice to confirm attainment. Consequently, please study properly on a daily basis.
Notice:
Try to understand the material thoroughly during the classes. Make an effort to always ask about things that are unclear, and solve them then and there. Also, always review the material on the same day, and do the problem exercises properly by solving the problems in the textbook and the workbook. Quizzes will sometimes be given without prior notice, so study properly on a daily basis. The overall evaluation will be based 50% on exams, 20% on submitted assignments, etc., and 30% on presentations and general effort toward classes. The minimum score for a pass will be 60 marks. However, evaluation scores based on these weightings will be calculated at the end of the school year. The cumulative evaluation up to the second semester midterm be based on interim weightings rather than the ones given above. Students who do well in assignments, presentations, etc. may get them evaluated with a higher weighting. CBT will be conducted in any week. Students who miss 1/3 or more of classes will not be eligible for a passing grade. This course's content will amount to 180 hours of study in total. These hours include the learning time guaranteed in classes and the standard self-study time required for pre-study / review, and completing assignment reports.
|
|
|
Theme |
Goals |
1st Semester |
1st Quarter |
1st |
Expansion of functions
|
Can calculate an approximation by polynomials. Can calculate the local primary approximation of a simple one-variable function.
|
2nd |
Expansion of functions |
Can calculate an approximation by polynomials.
|
3rd |
Expansion of functions |
Can calculate various columns of extremes, including indeterminate shapes.
|
4th |
Expansion of functions |
Can investigate and calculate the sum of the convergence and divergence of simple series such as infinite equalization series.
|
5th |
Expansion of functions |
Can investigate and calculate the sum of the convergence and divergence of simple series such as infinite equalization series.
|
6th |
Expansion of functions |
Understand the Taylor expansion of one-variable functions and can calculate the Maclaurin expansion of basic functions.
|
7th |
Expansion of functions |
Understand the Taylor expansion of one-variable functions and can calculate the Taylor expansion of basic functions. Can use the Euler formula to perform simple computation of the exponential function of a complex variable.
|
8th |
Midterm exam |
|
2nd Quarter |
9th |
Partial differentiation method |
Understand two-variable functions and can draw simple curves. Understand the definition area of a two-variable function and can represent it by inequality or graph.
|
10th |
Partial differentiation method |
Can calculate partial derivatives.
|
11th |
Partial differentiation method |
Can calculate the total derivative.
|
12th |
Partial differentiation method |
Can calculate the equation of a tangent plane.
|
13th |
Partial differentiation method |
Can use the partial derivative of a synthesis function to calculate the partial derivative.
|
14th |
Applying the partial differentiation method |
Can calculate a second partial derivative for a simple function. Can calculate a high-order polarization derivative for a simple function.
|
15th |
Applying the partial differentiation method |
Can calculate the extrema of a basic two-variable function using .
|
16th |
Final exam
|
|
2nd Semester |
3rd Quarter |
1st |
Applying the partial differentiation method |
Can perform applied computation using the negative derivative method.
|
2nd |
Applying the partial differentiation method |
Can solve problems of conditional extrema.
|
3rd |
Applying the partial differentiation method |
Can calculate the equation of the envelope line. Can solve applied problems related to partial differentials.
|
4th |
Double integrals |
Understand the definition of dual integration.
|
5th |
Double integrals |
Understand the nature of dual integration.
|
6th |
Double integrals |
Understand the definition of double integrals, and can convert calculate simple double integrals by converting them into iterated integrals.
|
7th |
Double integrals |
Can switch the order of double integrals. Can perform various computation of double integrals.
|
8th |
Midterm exam
|
|
4th Quarter |
9th |
Double integrals |
Can use double integrals to calculate the volume of a simple solid.
|
10th |
Variable conversion and multiple integrals |
Can calculate double integrals by converting to polar coordinates.
|
11th |
Variable conversion and multiple integrals |
Can compute variable conversion for multiple integrals.
|
12th |
Variable conversion and multiple integrals |
Can calculate improper integrals.
|
13th |
Variable conversion and multiple integrals |
Can use multiple integrals to calculate curvature areas.
|
14th |
Variable conversion and multiple integrals |
Can use multiple integrals to calculate the average and center of gravity.
|
15th |
Variable conversion and multiple integrals |
Can solve applied problems using multiple integrals.
|
16th |
Final exam
|
|