Shifting.

Slides:



Advertisements
Similar presentations
Order of function transformations
Advertisements

Your Transformation Equation y = - a f(-( x ± h)) ± k - a = x-axis reflection a > 1 = vertical stretch 0 < a < 1 = vertical compression -x = y-axis reflection.
Write equation or Describe Transformation. Write the effect on the graph of the parent function down 1 unit1 2 3 Stretch by a factor of 2 right 1 unit.
Section 2.5 Transformations of Functions. Overview In this section we study how certain transformations of a function affect its graph. We will specifically.
Chapter 3.4 Graphs and Transformations By Saho Takahashi.
Lesson 1-3 New Functions from Old Functions Part 1 - Part 1 tbn3.gstatic.com/images?q=tbn:ANd9GcTMSNbfIIP8t1Gulp87xLpqX92qAZ_vZwe4Q.
The square root function and its family.. By: Bothaina Mohammed.
1 The graphs of many functions are transformations of the graphs of very basic functions. The graph of y = –x 2 is the reflection of the graph of y = x.
College Algebra 2.7 Transformations.
1.6 Shifting, Reflecting and Stretching Graphs How to vertical and horizontal shift To use reflections to graph Sketch a graph.
2.6 – Transformations of Graphs
5.1 Stretching/Reflecting Quadratic Relations
Function - 2 Meeting 3. Definition of Composition of Functions.
TRANSFORMATIONS Shifts Stretches And Reflections.
3.4 Graphing Techniques; Transformations. (0, 0) (1, 1) (2, 4) (0, 2) (1, 3) (2, 6)
3-2 Families of Graphs Pre Calc A. Parent Graphs.
 Let c be a positive real number. Vertical and Horizontal Shifts in the graph of y = f(x) are represented as follows. 1. Vertical shift c upward:
WHICH TRANSFORMATIONS DO YOU KNOW? ROTATION WHICH TRANSFORMATIONS DO YOU KNOW? ROTATION.
SECTION 1.5 GRAPHING TECHNIQUES; GRAPHING TECHNIQUES; TRANSFORMATIONS TRANSFORMATIONS.
Section 3.5 Graphing Techniques: Transformations.
Digital Lesson Shifting Graphs.
2.5 Shifting, Reflecting, and Stretching Graphs. Shifting Graphs Digital Lesson.
Lesson 3.2. Parent Function General Formula We can write all parent functions in the following form:
Section 1.4 Transformations and Operations on Functions.
Section 2.5 Transformations Copyright ©2013, 2009, 2006, 2001 Pearson Education, Inc.
Warm-Up Evaluate each expression for x = -2. 1) (x – 6) 2 4 minutes 2) x ) 7x 2 4) (7x) 2 5) -x 2 6) (-x) 2 7) -3x ) -(3x – 1) 2.
Section 3-2: Analyzing Families of Graphs A family of graphs is a group of graphs that displays one or more similar characteristics. A parent graph is.
Precalculus Functions & Graphs Notes 2.5A Graphs of Functions TerminologyDefinitionIllustration Type of Symmetry of Graph f is an even function f(-x) =
The following are what we call The Parent Functions.
Shifting, Reflecting, & Stretching Graphs 1.4. Six Most Commonly Used Functions in Algebra Constant f(x) = c Identity f(x) = x Absolute Value f(x) = |x|
Transformations of Graphs
Transforming Linear Functions
2.4 Transformations of Functions
Graphing Technique; Transformations
2.6 Families of Functions Learning goals
Section 6.2 – Graphs of Exponential Functions
Pre-AP Algebra 2 Goal(s):
Transformation of Functions
Transformations of Graphs
Absolute Value Transformations
Warm-Up 1. On approximately what interval is the function is decreasing. Are there any zeros? If so where? Write the equation of the line through.
2.6 Translations and Families of Functions
I can Shift, Reflect, and Stretch Graphs
Section 2.5 Transformations.
Remember we can combine these together !!
Transformations of Graphs
Who Wants to Be a Transformation Millionaire?
Transformations of exponential functions
Elementary Functions: Graphs and Transformations
Graphing Exponential Functions
Graph Transformations
Copyright © 2014, 2010, 2007 Pearson Education, Inc.
2.7 Graphing Absolute Value Functions
Transformation rules.
2.5 Graphing Techniques; Transformations
3.2 Transformations of the Graphs of Functions
Parent Function Transformations
2.7 Graphing Absolute Value Functions
§ 8.3 Graphing Piecewise-Defined Functions and Shifting and Reflecting Graphs of Functions.
6.4a Transformations of Exponential Functions
Horizontal Shift left 4 units Vertical Shift down 2 units
The vertex of the parabola is at (h, k).
1.5b Combining Transformations
6.4c Transformations of Logarithmic functions
2.5 Graphing Techniques; Transformations
15 – Transformations of Functions Calculator Required
Transformations.
Replacing with and (2.6.2) October 27th, 2016.
Transformation of Functions
Warm up honors algebra 2 3/1/19
Presentation transcript:

Shifting

x f(x) 1 or -1 1 2 or -2 4 3 or -3 9 4 or -4 16 x f(x) + 3 3 1 or -1 4 2 or -2 7 3 or -3 12 4 or -4 19

(4, 19) (4, 16)

Vertical Shifting If c is positive, then a graph of y = f(x) + c will be shifted c units vertically upward. If c is positive, then a graph of y = f(x) – c will be shifted c units vertically downward.

x f(x) 1 or -1 1 2 or -2 4 3 or -3 9 4 or -4 16 x f(x) -3 -4 or -2 1 -5 or -1 4 -6 or 0 9 - 7 or 1 16

(4, 16) (1, 16)

x f(x) 1 or -1 1 2 or -2 4 3 or -3 9 4 or -4 16 x f(x) 3 2 or 4 1 1 or 5 4 0 or 6 9 -1 or 7 16

(4, 16) (7, 16)

Horizontal Shifting If c > 0, the graph of y = f(x – c) will be shifted horizontally c units right from the graph of y = f(x). If c > 0, the graph of y = f(x + c) will be shifted horizontally c units left from the graph of y = f(x).

REFLECTIONS

x f(x) 1 or -1 1 2 or -2 4 3 or -3 9 4 or -4 16 x f(x) 1 or -1 -1 2 or -2 -4 3 or -3 -9 4 or -4 -16

(4, 16) (4, -16)

Vertical Reflection The graph of y = -f(x) will be reflected vertically over the x-axis from y = f(x).

x f(x) 1 4 2 9 3 16

x f(x) -1 1 -4 2 -9 3 -16 4

(4, 2) (-4, 2)

Horizontal Reflection The graph of y = f(-x) would be reflected horizontally about the y-axis from y = f(x).

STRETCHING/COMPRESSING

x f(x) 1 or -1 1 2 or -2 4 3 or -3 9 4 or -4 16 x f(x) 1 or -1 2 2 or -2 8 3 or -3 18 4 or -4 32

(2, 8) (2, 4)

x f(x) 1 or -1 ½ 2 or -2 2 3 or -3 9/2 4 or -4 8

(4, 16) (4, 8)

Vertical Stretch or Compression If c > 1, the graph of y = c f(x) will be stretched vertically by a factor of c from the graph of y = f(x). If 0 < c < 1, the graph of y = c f(x) will be compressed vertically by a factor of c from the graph of y = f(x).

x f(x) 1 4 2 9 3 16 x f(x) ½ 1 2 9/2 3 8 4

(4, 2) (2, 2)

x f(x) 1 4 2 9 3 16 x f(x) 2 1 8 18 3 32 4

(4, 2) (8, 2)

Horizontal Stretch or Compression If c > 1, the graph of y = f(cx) will be horizontally compressed by a factor of 1/c from the graph of f(x). If 0 < 1/c < 1, the graph of y = f((1/c)x) will be horizontally stretched by a factor of c from the graph of f(x).