Upload File

Download - Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Transcript
Page 1: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Relationdomainrangefunctionindependent variable dependent variable"f of x""f at t"linear functionsvertical line testzeros of a function

Page 2: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Bellringer:1.

2.

Page 3: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

What are 4 ways to write a relation?as a set of ordered pairsmapping diagram

graph of an equation

Page 4: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Examples of Relations:

Page 5: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 6: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Are all relations functions? Why or Why Not?

Page 7: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Function or not?

Page 8: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 9: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 10: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

The special notation represents the value of the function at the number

a)

b)

c)

Page 11: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Did you know?

Page 12: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 13: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 14: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 15: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 16: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 17: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 18: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 19: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 20: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Answer below:

Page 21: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 22: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 23: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 24: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y
Page 25: Relation domain range function independent variable ... Point 3 Solve each equation for y and then determine whether the equation defines y as a function of x: x2+y2= l. a. 2x + y

Top Related

images.pcmac.orgimages.pcmac.org/Uploads/NewberryCountySchools... · Web viewGraph the equation 5x + y = 7. Graph the equation 2x + 5y – 11 = 0. Graph the function f(x) = 2. Graph
images.pcmac.orgimages.pcmac.org/Uploads/NewberryCountySchools... · Web viewGraph the equation 5x + y = 7. Graph the equation 2x + 5y – 11 = 0. Graph the function f(x) = 2. Graph
Nonequilibrium Green’s Function and Quantum Master Equation Approach to Transport
Nonequilibrium Green’s Function and Quantum Master Equation Approach to Transport
5.5 Standard Form: Linear Equation: is an equation that models a linear function. X-intercept: The point where the graph crosses the x-axis, ( y=0). Y-intercept:
5.5 Standard Form: Linear Equation: is an equation that models a linear function. X-intercept: The point where the graph crosses the x-axis, ( y=0). Y-intercept:
Graphing Quadratic Functions A quadratic function is an equation of the form: y = ax 2 + bx + c
Graphing Quadratic Functions A quadratic function is an equation of the form: y = ax 2 + bx + c
Function Generation using Freudenstein’s Equationstarr/teaching/me314/freud.pdf · Function Generation using Freudenstein’s Equation A presentation of using Freudenstein’s Equation
Function Generation using Freudenstein’s Equationstarr/teaching/me314/freud.pdf · Function Generation using Freudenstein’s Equation A presentation of using Freudenstein’s Equation
Nonrecursive Digital Filters. Digital Filters & Filter Equation General Equation Transfer function Frequency response - FIR - Convolution
Nonrecursive Digital Filters. Digital Filters & Filter Equation General Equation Transfer function Frequency response - FIR - Convolution
Functions and Graphs. Function : is represented as f(x)=y such as y = x 2 an equation gives ‘ y as a function of x’ means that for every x value there
Functions and Graphs. Function : is represented as f(x)=y such as y = x 2 an equation gives ‘ y as a function of x’ means that for every x value there
TRIGONOMETRIC EQUATIONS Solving a Trigonometric Equation : 1. Try to reduce the equation to one involving a single function 2. Solve the equation using
TRIGONOMETRIC EQUATIONS Solving a Trigonometric Equation : 1. Try to reduce the equation to one involving a single function 2. Solve the equation using