Welcome to the course material on Integration in General Mathematics. Integration is a fundamental concept in calculus that involves finding the accumulation of quantities. This process of integration is essentially the reverse of differentiation. In this course, we will delve into solving problems of integration involving algebraic and simple trigonometric functions, as well as calculating the area under the curve in simple cases.

One of the main objectives of this course is to equip you with the necessary skills to integrate explicit algebraic and simple trigonometric functions. Integration allows us to determine the original function when the rate of change is known. By understanding the process of integration, you will be able to find solutions to a wide range of mathematical problems that involve accumulation and finding the total quantity.

**Limit Of A Function:** Before we embark on integration, it is essential to have a solid foundation in understanding the limit of a function. The limit provides crucial information about the behavior of a function as it approaches a certain value. This knowledge is vital for determining the integral of a function accurately.

**Differentiation Of Explicit Algebraic And Simple Trigonometrical Functions:** Differentiation is closely tied to integration, as the derivative of a function helps us in the integration process. By being proficient in differentiation, you will be better equipped to handle the intricacies of integration. We will pay special attention to functions involving sine, cosine, and tangent, as they are commonly encountered in integration problems.

**Rate Of Change:** Understanding the concept of rate of change is essential for integration. The rate of change determines how a quantity is changing over time or with respect to another variable. In integration, we use this information to determine the cumulative effect of this change.

**Maxima And Minima:** Maxima and minima points are critical in integration, as they help us identify the extreme values of a function. By locating these points, we can determine the area enclosed under the curve accurately.

**Area Under The Curve:** Calculating the area under the curve is a key aspect of integration. This process involves finding the total area between the curve of a function and the x-axis. By applying integration techniques, we can accurately determine this area, which has numerous applications in real-world scenarios.

In conclusion, mastering the concept of integration is crucial for tackling complex mathematical problems and understanding the relationship between functions and their accumulation. By the end of this course material, you will have the knowledge and skills to solve integration problems involving algebraic and trigonometric functions, as well as calculate the area under the curve effectively.


  1. Solve Problems Of Integration Involving Algebraic And Simple Trigonometric Functions
  2. Calculate Area Under The Curve (Simple Cases Only)

Lesson Note

Integration is a fundamental concept in calculus, known as the inverse process of differentiation. While differentiation focuses on finding the derivative or the rate of change of a function, integration is about finding the anti-derivative or the original function from the derivative. In simpler terms, if differentiation finds the slope of a function, integration finds the area under the curve of that function.

Lesson Evaluation

Congratulations on completing the lesson on Integration. Now that youve explored the key concepts and ideas, its time to put your knowledge to the test. This section offers a variety of practice questions designed to reinforce your understanding and help you gauge your grasp of the material.

You will encounter a mix of question types, including multiple-choice questions, short answer questions, and essay questions. Each question is thoughtfully crafted to assess different aspects of your knowledge and critical thinking skills.

Use this evaluation section as an opportunity to reinforce your understanding of the topic and to identify any areas where you may need additional study. Don't be discouraged by any challenges you encounter; instead, view them as opportunities for growth and improvement.

  1. Calculate the integral of 3x^2 + 2x - 5 dx. A. x^3 + x^2 - 5x + C B. x^3 + x^2 - 5x C. x^3 + x^2 - 5x^2 + C D. 3x^3 + x^2 - 5x + C Answer: A. x^3 + x^2 - 5x + C
  2. Find the integral of 4sin(x) + 3cos(x) dx. A. 4cos(x) + 3sin(x) + C B. 4sin(x) + 3cos(x) C. 4cos(x) + 3sin(x) + 2C D. 4sin(x) + 3cos(x) - C Answer: A. 4cos(x) + 3sin(x) + C
  3. Evaluate the integral of (2x + 3)(x^2 + 4x) dx. A. (x^2 + 4x)^2 + C B. 4x^4 + 3x^3 + 8x^2 + C C. x^4 + 2x^3 + 8x^2 + C D. 2x^4 + 4x^3 + 8x^2 + C Answer: B. 4x^4 + 3x^3 + 8x^2 + C
  4. Determine the integral of tan(x) sec^2(x) dx. A. tan(x) + C B. sec^2(x) + C C. sec(x) + C D. ln
  5. sec(x)
  6. + C Answer: A. tan(x) + C
  7. Calculate the integral of e^(2x) dx. A. e^(2x) + C B. 2e^(2x) + C C. e^(x) + C D. 2e^(x) + C Answer: A. e^(2x) + C

Recommended Books

Past Questions

Wondering what past questions for this topic looks like? Here are a number of questions about Integration from previous years

Question 1 Report

Find the matrix A

A [0211][2110]

Question 1 Report

The table gives the distribution of outcomes obtained when a die was rolled 100 times.

What is the experimental probability that it shows at most 4 when rolled again?

Question 1 Report

The mean age of 12 boys involved survey is 19 years, 3 months. lf the-age of one of the boys is 22 years, what is the mean age of the other-boys?

Practice a number of Integration past questions