Introduction to derivates (laws and properties).pptx
DavidAltamiranodelAn
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Oct 15, 2025
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About This Presentation
Derivatives are a fundamental concept in calculus used to measure how a function changes as its input changes. In simple terms, the derivative represents the rate of change or the slope of a curve at a specific point.
They are widely used in science and engineering to analyze motion, optimize syste...
Derivatives are a fundamental concept in calculus used to measure how a function changes as its input changes. In simple terms, the derivative represents the rate of change or the slope of a curve at a specific point.
They are widely used in science and engineering to analyze motion, optimize systems, and model real-world situations. Common rules include the power rule, product rule, quotient rule, and chain rule, which simplify the process of differentiation.
Understanding derivatives helps describe how quantities vary over time — for example, how velocity is the derivative of position, and acceleration is the derivative of velocity.
Size: 4.76 MB
Language: en
Added: Oct 15, 2025
Slides: 29 pages
Slide Content
U3 Derivatives
What is derivatives? It is what allows us to find the tangent line to a given function . NOTE: is the Increment of X
Slope of a line If two random points P 1 (x 1 ,y 1 ) and P 2 (x 2 ,y 2 ) are chosen on a straight line , the ratio is being this a constant and is called the slope of the straight line and is defined as: Ejemplo : (1,3) y (3,7) 7-3 3-1 The equation of the straight line in its slope ordered form is: 1
Secant line A secant line is any line that cuts a curve at 2 points . Tangent Line The tangent is any line that contains one and only one point of the curve, which is called the tangent point.
Average rate of change 1.- Graphic 2.- Type of function 3.- Mathematical function 4. 5. Average speed 3hrs= 5hrs=
Instantaneous velocity
Secant line Slope of the secant line
Tangent Line Slope of the tangent line or instantaneous velocity
Formal definition of the derivative Let be a function and its derivative is defined as: All provided that the limit exists and is represented by: o
Take the derivative of Example 1 Step 1. Know the value of =3 ( ) +2 Step 2. Take the value of Tip:
Example 2 Step 1. Know the value of Step 2. Take the value of Take the derivative of
How to factor Step 1. First in each of the terms must be the . Step 2. You have to divide between .
How to factor Step 1. First in each of the terms must be the . Step 2. You have to divide between .
NOTA: In order to divide between Step 1. Arrange the values in the formula Step 2. Make the respective multiplications
Step 3. Removing terms Step 4. Solve the limit =3 Paso 5. Since in this case there is no , IT CANNOT BE REPLACED BY 0. So the result is
Exercises to solve 1 2 3 4 5 6 1
LIST OF DERIVATIVES
Derivation rules If then the derivative is Example : then the derivative is If then the derivative is Example : then the derivative is in Square Root Example : then the derivative is
Derivation rules If then the derivative is Example : then the derivative is if then the derivative is Ejemplo: then the derivative is
Derivation rules If then the derivative is Example : then the derivative is If then the derivative is Example : then the derivative is
Rules of the chain Step 1. Derived from outside and derived from inside Step 2. Do the operations
Derivation rules If then the derivative is Example : then the derivative is If then the derivative is Example : then the derivative is
Derivation rules If then the derivative is Example : then the derivative is But by the chain rule the angle can always be derived, we derive it If then the derivative is Example : then the derivative is But by the chain rule the angle can always be derived, we derive it
Derivation rules If then the derivative is Example : then the derivative is But by the chain rule the angle can always be derived, we derive it If then the derivative is Example : then the derivative is But by the chain rule the angle can always be derived, we derive it
Derivation rules If then the derivative is Example : then the derivative is But by the chain rule the angle can always be derived, we derive it If then the derivative is Example : then the derivative is But by the chain rule the angle can always be derived, we derive it
Rule of inverse trigonometric Ejemplo:
Implicit derivatives Explicit because the letter 𝑦 is the dependent variable is clear. Implicit because the variable 𝑦 which is the dependent variable is no longer clear, but is found within the equation.
Example of implicit derivatives: Differentiating with respect to: Exercises to practice : Implicit derivatives