Engineering Mathematics: Application of Derivatives and Integrals

diyala university college of engineering n.w
1 / 31
Embed
Share

Explore the application of derivatives and antiderivatives in engineering mathematics. Learn about indefinite integrals, areas, distances, and more with examples and explanations provided by Asst. Lecturer Wisam Hayder at Diyala University College of Engineering.

  • Mathematics
  • Engineering
  • Derivatives
  • Integrals
  • Diyala University

Uploaded on | 0 Views


Download Presentation

Please find below an Image/Link to download the presentation.

The content on the website is provided AS IS for your information and personal use only. It may not be sold, licensed, or shared on other websites without obtaining consent from the author. If you encounter any issues during the download, it is possible that the publisher has removed the file from their server.

You are allowed to download the files provided on this website for personal or commercial use, subject to the condition that they are used lawfully. All files are the property of their respective owners.

The content on the website is provided AS IS for your information and personal use only. It may not be sold, licensed, or shared on other websites without obtaining consent from the author.

E N D

Presentation Transcript


  1. DIYALA UNIVERSITY COLLEGE OF ENGINEERING DEPARTMENT OF COMMUNICATIONS ENGINEERING Mathematics- I First Year Lecture 5 Asst. lecturer Wisam Hayder 2020 - 2021 1

  2. Application of Derivatives Antiderivatives 2

  3. Application of Derivatives 3

  4. Application of Derivatives 4

  5. Application of Derivatives 5

  6. Application of Derivatives Indefinite Integrals 6

  7. Application of Derivatives 7

  8. INTEGRATION Area and Distance Area 8

  9. INTEGRATION In each of our computed sums, the interval [a, b] over which the function is defined was subdivided into n subintervals of equal width (also called length) ? = (? ?) ? and was evaluated at a point in each subinterval: ?1 in the first subinterval, ?2in the second subinterval, and so on. The finite sums then all take the form. 9

  10. INTEGRATION Distance Traveled Suppose we know the velocity function (t) of a car moving down a highway, without changing direction, and want to know how far it traveled between times t=a & t=b. If we already know an antiderivative F(t) of y(t) we can find the car s position function s(t) by setting s(t) = F(t) + C. The distance traveled can then be found by calculating the change in position, s(b) s(a) = F(b) F(a). 10

  11. INTEGRATION Then we can approximate the distance traveled on each time subinterval with the usual distance formula distance = velocity time. and add the results across [a, b]. Suppose the subdivided interval looks like with the subintervals all of equal length ?. Pick a number ?1in the first interval, ?2is a number in the second interval. The distance traveled in the second time interval is about v(?2) ?. The sum of the distances traveled over all the time intervals is Where n is the total number of subintervals. 11

  12. INTEGRATION The Definite Integral DDD 12

  13. INTEGRATION 13

  14. INTEGRATION 14

  15. INTEGRATION 15

  16. INTEGRATION Indefinite Integrals and the Substitution Method The set of all anti derivatives of a function is called indefinite integral of the function. Assume u and v denote differentiable functions of x, and a, n, and c are constants, then the integration formulas are:- 16

  17. INTEGRATION 17

  18. INTEGRATION 18

  19. INTEGRATION 19

  20. INTEGRATION 20

  21. INTEGRATION Area Between Curves 21

  22. INTEGRATION 22

  23. INTEGRATION 23

  24. Applications Of Definite Integrals Volumes Volumes Using Cylindrical Shells 24

  25. Applications Of Definite Integrals

  26. Applications Of Definite Integrals 26

  27. Applications Of Definite Integrals 27

  28. Applications Of Definite Integrals 28

  29. Applications Of Definite Integrals Work 29

  30. Applications Of Definite Integrals 30

  31. Applications Of Definite Integrals 31

More Related Content