Pass out student note handouts. On graph paper, graph the following functions https://www.desmos.com/calculator 1.7 Transformations of Functions.

Slides:



Advertisements
Similar presentations
Essential Question: In the equation g(x) = c[a(x-b)] + d what do each of the letters do to the graph?
Advertisements

Lesson 1-3 New Functions from Old Functions Part 1 - Part 1 tbn3.gstatic.com/images?q=tbn:ANd9GcTMSNbfIIP8t1Gulp87xLpqX92qAZ_vZwe4Q.
Section 3.5 Transformations Vertical Shifts (up or down) Graph, given f(x) = x 2. Every point shifts up 2 squares. Every point shifts down 4 squares.
Transformation of Functions Section 1.6. Objectives Describe a transformed function given by an equation in words. Given a transformed common function,
Lesson 5-8 Graphing Absolute Value Functions
Section 1.6 Transformation of Functions
Essential Question: In the equation f(x) = a(x-h) + k what do each of the letters do to the graph?
Table of Contents Functions: Transformations of Graphs Vertical Translation: The graph of f(x) + k appears.
Transformations xf(x) Domain: Range:. Transformations Vertical Shifts (or Slides) moves the graph of f(x) up k units. (add k to all of the y-values) moves.
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.
Transformations to Parent Functions. Translation (Shift) A vertical translation is made on a function by adding or subtracting a number to the function.
Copyright © Cengage Learning. All rights reserved. 1 Functions and Their Graphs.
College Algebra 2.7 Transformations.
Graphing Techniques: Transformations
S ECTION 1.7 Transformations. T RANSFORMATION C ATEGORIES The transformations fall into three broad categories: 1. Shifts 2. Reflections 3. Scalings.
 Reflections in the coordinate axes of the graph of y = f(x) are represented by: 1. Reflection in the x-axis: h(x) = -f(x) 2. Reflection in the y-axis:
2.7 Graphing Absolute Value Functions The absolute value function always makes a ‘V’ shape graph.
Graph Absolute Value Functions using Transformations
Ch 6 - Graphing Day 1 - Section 6.1. Quadratics and Absolute Values parent function: y = x 2 y = a(x - h) 2 + k vertex (h, k) a describes the steepness.
TRANSFORMATIONS Shifts Stretches And Reflections.
Sullivan PreCalculus Section 2.5 Graphing Techniques: Transformations
3-2 Families of Graphs Pre Calc A. Parent Graphs.
Transformations Transformations of Functions and Graphs We will be looking at simple functions and seeing how various modifications to the functions transform.
Transformation of Functions
3.4 Graphs and Transformations
TRANSFORMATIONS OF FUNCTIONS Shifts and stretches.
 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:
Graphing Rational Functions Through Transformations.
Today in Pre-Calculus Do NOT need a calculator Go over homework
Transformations of Functions. Graphs of Common Functions See Table 1.4, pg 184. Characteristics of Functions: 1.Domain 2.Range 3.Intervals where its increasing,
2.6: Absolute Value and Families of Functions. Absolute Value Ex1) Graph y = |x|
Section 3.5 Graphing Techniques: Transformations.
EQ: How can transformations effect the graph a parent function? I will describe how transformations effect the graph of a parent function.
The absolute-value parent function is composed of two linear pieces, one with a slope of –1 and one with a slope of 1. In Lesson 2-6, you transformed linear.
Quick Crisp Review Graphing a piecewise function Determine relative max and min Graphing a step function 35)a) oddb) even (-3/2, 4)
2.5 Shifting, Reflecting, and Stretching Graphs. Shifting Graphs Digital Lesson.
Transformation of Functions Sec. 1.7 Objective You will learn how to identify and graph transformations.
Transformations of Linear and Absolute Value Functions
2.7 Absolute Value Functions and Transformations Parent Function of Absolute Value  F(x)= I x I  Graph is a “v-shape”  2 rays meeting at a vertex V(0,0)
Vocabulary The distance to 0 on the number line. Absolute value 1.9Graph Absolute Value Functions Transformations of the parent function f (x) = |x|.
I. There are 4 basic transformations for a function f(x). y = A f (Bx + C) + D A) f(x) + D (moves the graph + ↑ and – ↓) B) A f(x) 1) If | A | > 1 then.
1. g(x) = -x g(x) = x 2 – 2 3. g(x)= 2 – 0.2x 4. g(x) = 2|x| – 2 5. g(x) = 2.2(x+ 2) 2 Algebra II 1.
Section 1.4 Transformations and Operations on Functions.
1 PRECALCULUS Section 1.6 Graphical Transformations.
HPC 2.5 – Graphing Techniques: Transformations Learning Targets: -Graph functions using horizontal and vertical shifts -Graph functions using reflections.
Pre-Cal Chapter 1 Functions and Graphs Section 1.5 Graphical Transformations.
Transformations of Functions. The vertex of the parabola is at (h, k).
Section 2.5 Transformations Copyright ©2013, 2009, 2006, 2001 Pearson Education, Inc.
Ch. 1 – Functions and Their Graphs 1.4 – Shifting, Reflecting, and Sketching Graphs.
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.
Lesson 1.4 Read: Pages Page 48: #1-53 (EOO).
Transforming Linear Functions
Section P.3 Transformation of Functions. The Constant Function.
Unit 2 – Quadratic Functions & Equations. A quadratic function can be written in the form f(x) = ax 2 + bx + c where a, b, and c are real numbers and.
The following are what we call The Parent Functions.
1.5 Graphical Transformations Represent translations algebraically and graphically.
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|
Transformation of Functions Lesson 2.5. Operation: Subtract 2 from DV. Transformation: Vertical translation Example #1.
2.6 Families of Functions Learning goals
Transformations to Parent Functions
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
Section 2.5 Transformations.
Section 1.6 Transformation of Functions
1.7 Notes: Transformations of Functions
Transformation rules.
Transformations to Parent Functions
Transformations to Parent Functions
15 – Transformations of Functions Calculator Required
1.7 Transformations of Functions
Presentation transcript:

Pass out student note handouts

On graph paper, graph the following functions Transformations of Functions

I. There are 4 basic transformations for a function f(x). y = A f (Bx + C) + D A) f(x) + D (moves the graph + ↑ and – ↓) B) A f(x) 1) If | A | > 1 then it is vertically stretched. 2) If 0 < | A | < 1, then it’s a vertical shrink. 3) If A is negative, then it flips over the x-axis. C) f(x + C) (moves the graph +  and –  ) D) f(Bx) or f(B(x)) (factor out the B term if possible) 1) If | B | > 1 then it’s a horizontal shrink. 2) If 0 < | B | < 1, then it’s horizontally stretched. 3) If B is negative, then it flips over the y-axis. Attached to the y – vertical and intuitive Attached to the x – horizontal and counter-intuitive

1.7 Transformations of Functions II. What each transformation does to the graph. A) f(x) f(x) + D f(x) – D B) +A f(x) +A f(x) –A f(x). A > 1 0 < A < 1

1.7 Transformations of Functions II. What each transformation does to the graph. C) f(x) f(x + C) f(x – C) D) f(Bx) f(Bx) f(-Bx). B > 1 0 < B < 1

1.7 Transformations of Functions III. What happens to the ordered pair (x, y) for shifts. A) f(x) + D (add the D term to the y value) Example: f(x) + 2 (5, 4)  f(x) – 3 (5, 4)  B) A f(x) (multiply the y value by A) Example: 3 f(x) (5, 4)  ½ f(x) (5, 4)  –2 f(x) (5, 4)  C) f(x + C) (add –C to the x value) [change C’s sign] Example: f(x + 2) (5, 4)  (subtract 2) f(x – 3) (5, 4)  (add 3)

1.7 Transformations of Functions III. What happens to the ordered pair (x, y) for shifts. D) f(Bx) or f (B(x)) 1) If B > 1 (divide the x value by B) Example: f(2x) (12, 4)  f(3x) (12, 4)  f (4(x)) (12, 4)  2) If 0<B<1 (divide the x value by B) [flip & multiply] Example: f(½x) (12, 4)  f (¾(x)) (12, 4)  3) If B is negative (follow the above rules for dividing) Example: f(-2x) (12, 4)  f (-½(x)) (12, 4) 

1.7 Transformations of Functions f(x) is shown below. Find the coordinates for the following shifts. f(x) + 4 f(x) – 6 2 f(x) ½ f(x) -3 f(x) f(x + 4) f(x – 3) f(2x) f(½x) f(-3(x)) (-4,6) (-1,4) (1,7 ) (2,1) (-4,-4) (-1,-6) (1,-3) (2,-9) (-8,2) (-5,0) (-3,3) (-2,-3) (-1,2) (2,0) (4,3) (5,-3) (-4,4) (-1,0) (1,6) (2,-6) (-4,1) (-1,0) (1, 3 / 2 ) (2,- 3 / 2 ) (-4,-6) (-1,0) (1,-9) (2,9) (-2,2) (- 1 / 2,0) ( 1 / 2,3) (1,-3) (-8,2) (-2,0) (2,3) (4,-3) ( 4 / 3,2) ( 1 / 3,0) (- 1 / 3,3) (- 2 / 3,-3)

Identify the parent function and describe the sequence of transformations. 1.7 Transformations of Functions Horizontal shift eight units to the right Reflection in the x-axis, and a vertical shift of one unit downward or y-axis!

Identify the parent function and describe the sequence of transformations. Parent Function Left 2 Horizontally compressed by a factor of 1/2 1.7 Transformations of Functions Always factor If possible!

Identify the parent function and describe the sequence of transformations. Flip over y-axis and right 4 If x is negated, factor out a negative! 1.7 Transformations of Functions

When graphing, perform non-rigid transformations 1 st and rigid transformations last That means stretch / compress / reflect before moving left / right / up / down Then find a few points and perform transformations on those points. Ex: Graph

Practice Ex: Graph

H Dub 1-7 Page 80 #9-12 (parts A and B only), all, 19-39EOO