Circle Ellipse HyperbolaParabola Conic Sections. Circles x 2 + y 2 = 16 center: (0,0) radius:4 44 4 4 Ex. 1 Standard form: (x – h) 2 + (y – k) 2 = r 2.

Slides:



Advertisements
Similar presentations
C O N I C S E C T I O N S Part 4: Hyperbola.
Advertisements

Conics D.Wetzel 2009.
10.1 Parabolas.
Section 11.6 – Conic Sections
Section 9.2 The Hyperbola. Overview In Section 9.1 we discussed the ellipse, one of four conic sections. Now we continue onto the hyperbola, which in.
Section 10.3 The Ellipse.
Conic Sections Parabola Ellipse Hyperbola
Copyright © 2012 Pearson Education, Inc. Publishing as Prentice Hall. Section 11.4 The Hyperbola.
10.5 Hyperbolas What you should learn: Goal1 Goal2 Graph and write equations of Hyperbolas. Identify the Vertices and Foci of the hyperbola Hyperbolas.
10.3 Hyperbolas. Circle Ellipse Parabola Hyperbola Conic Sections See video!
What type of conic is each?. Hyperbolas 5.4 (M3)
Section 9-5 Hyperbolas. Objectives I can write equations for hyperbolas I can graph hyperbolas I can Complete the Square to obtain Standard Format of.
C.P. Algebra II The Conic Sections Index The Conics The Conics Translations Completing the Square Completing the Square Classifying Conics Classifying.
Sullivan PreCalculus Section 9.4 The Hyperbola Objectives of this Section Find the Equation of a Hyperbola Graph Hyperbolas Discuss the Equation of a Hyperbola.
EXAMPLE 1 Graph the equation of a translated circle
Section 8.4.  The definition of a hyperbola is similar to that of an ellipse. However, this time it is the difference in the distances to the two foci,
Advanced Geometry Conic Sections Lesson 4
9.1 Conic Sections Conic sections – curves that result from the intersection of a right circular cone and a plane. Circle Ellipse Parabola Hyperbola.
What is the standard form of a parabola who has a focus of ( 1,5) and a directrix of y=11.
Review Day! Hyperbolas, Parabolas, and Conics. What conic is represented by this definition: The set of all points in a plane such that the difference.
Hosted by Mrs. Hopkins We need teams of no more than 4 people, and each team needs a team name and whiteboard. Each team will get to pick a question,
50 Miscellaneous Parabolas Hyperbolas Ellipses Circles
Translating Conic Sections
Conics can be formed by the intersection
Section 7.3 – The Ellipse Ellipse – a set of points in a plane whose distances from two fixed points is a constant.
10.6 – Translating Conic Sections. Translating Conics means that we move them from the initial position with an origin at (0, 0) (the parent graph) to.
Write the standard equation for a hyperbola.
EXAMPLE 1 Graph the equation of a translated circle Graph (x – 2) 2 + (y + 3) 2 = 9. SOLUTION STEP 1 Compare the given equation to the standard form of.
Conic Sections Advanced Geometry Conic Sections Lesson 2.
Algebra Conic Section Review. Review Conic Section 1. Why is this section called conic section? 2. Review equation of each conic section A summary of.
EXAMPLE 3 Write an equation of a translated parabola Write an equation of the parabola whose vertex is at (–2, 3) and whose focus is at (–4, 3). SOLUTION.
Conic Sections & Rational Functions MATHO Algebra 5/Trig.
Conic Sections Curves with second degree Equations.
Conic Sections.
What is a hyperbola? Do Now: Define the literary term hyperbole.
EXAMPLE 3 Write an equation of a translated parabola
Hyberbola Conic Sections. Hyperbola The plane can intersect two nappes of the cone resulting in a hyperbola.
Section 8.3 Ellipses Parabola Hyperbola Circle Ellipse.
W RITING AND G RAPHING E QUATIONS OF C ONICS GRAPHS OF RATIONAL FUNCTIONS STANDARD FORM OF EQUATIONS OF TRANSLATED CONICS In the following equations the.
Conics Review Study Hard!. Name the Conic without graphing and write it in standard form X 2 + Y 2 -4Y-12=0.
Conic Sections.
W RITING AND G RAPHING E QUATIONS OF C ONICS GRAPHS OF RATIONAL FUNCTIONS STANDARD FORM OF EQUATIONS OF TRANSLATED CONICS In the following equations the.
What am I?. x 2 + y 2 – 6x + 4y + 9 = 0 Circle.
Conic Sections The Parabola. Introduction Consider a ___________ being intersected with a __________.
Center: (h, k) AOS: x = h and y = k Orientation: Horizontal if a >b Vertical if a
Equations of Ellipses & Hyperbolas If the equation is in standard form we need to change it into the usable form …
HYPERBOLA DO NOW: GET READY FOR NOTETAKING!!!!!! What is the difference between a hyperbola and an ellipse? What are the parts of a hyperbola and how do.
Conic Sections There are 4 types of Conics which we will investigate: 1.Circles 2.Parabolas 3.Ellipses 4.Hyperbolas.
Distance The distance between any two points P and Q is written PQ. Find PQ if P is (9, 1) and Q is (2, -1)
The Hyperbola. x y Transverse axis Vertex Focus Center A hyperbola is the set of points in a plane the difference whose distances from two fixed points.
Hyperbolas Objective: graph hyperbolas from standard form.
Conic Sections. Objective Given a translation, I can graph an equation for a conic section.
9.3 Hyperbolas Hyperbola: set of all points such that the difference of the distances from any point to the foci is constant.
10.1 Identifying the Conics. Ex 1) Graph xy = 4 Solve for y: Make a table: xy ½ ½ Doesn’t touch y -axis Doesn’t touch x -axis.
Today’s Date: 2/26/ Identifying the Conic Section.
Short Subject: Conics - circles, ellipses, parabolas, and hyperbolas
Translating Conic Sections
Asymptotes are drawn thru the box corners
6-3 Conic Sections: Ellipses
6.2 Equations of Circles +9+4 Completing the square when a=1
Hyperbolas 4.4 Chapter 10 – Conics. Hyperbolas 4.4 Chapter 10 – Conics.
6-3 Conic Sections: Ellipses
Eccentricity Notes.
Review Circles: 1. Find the center and radius of the circle.
Test Dates Thursday, January 4 Chapter 6 Team Test
Chapter 10 Algebra II Review JEOPARDY Jeopardy Review.
Chapter 10 Conic Sections.
10.6 – Translating Conic Sections
Chapter 7 Analyzing Conic Sections
Presentation transcript:

Circle Ellipse HyperbolaParabola Conic Sections

Circles x 2 + y 2 = 16 center: (0,0) radius: Ex. 1 Standard form: (x – h) 2 + (y – k) 2 = r 2 center: (h, k) radius: r (x – 0) 2 + (y – 0) 2 = 4 2

x 2 + y 2 = 36 center: (0,0) radius:6 6

x 2 + y 2 = 60 center: (0,0) radius:

(x-5) 2 + (y+2) 2 = 9 center: (5,-2) radius:3 3

Find the center and radius of the circle: x 2 + y x – 6y + 33 = 0 x x + y 2 – 6y = -33 Fill in the blanks by completing the square If you add 25 and 9 to one side, you must add 25 and 9 to the other side Factor the left hand side (x + 5) 2 + (y – 3) 2 = 1 Center:(-5, 3) Radius: 1

Find the center and radius of the circle: x 2 + y 2 + 8x – 2y + 13 = 0 x 2 + 8x + y 2 – 2y = -13 Fill in the blanks by completing the square If you add 16 and 1 to one side, you must add 16 and 1 to the other side Factor the left hand side (x + 4) 2 + (y – 1) 2 = 4 Center:(-4, 1) Radius: 2

Ellipse Center = (0,0) Major Axis = 10 Minor Axis = 4 x 2 y = Standard form: + = 1 (x - h) 2 (y - k) 2 a 2 b 2

Ellipse Center = (0,0) Major Axis = 10 Minor Axis = 4 x 2 y = Standard form: + = 1 (x - h) 2 (y - k) 2 a 2 b 2 Foci will lie on the major axis c units from the center a 2 – b 2 = c 2 25 – 4 = c 2 21 = c 2  21 = c Foci: (0  21, 0) -  21  21

36x 2 +9y 2 – 72x +54y = 207 Center =(1, -3) Major Axis =12 Minor Axis = (x 2 – 2x ) + 9(y 2 + 6y ) = x 2 – 72x + 9y 2 +54y = (x – 1) 2 + 9(y + 3) 2 = (x – 1) 2 (y + 3) = 1

>The foci are at the point (1, -3   27) Finding the Focus (foci) >The foci lie on the major axis a 2 – b 2 = c 2 36 – 9 = c 2 + = 1 (x-1) 2 (y+3) = c 2  27 = c  27 >The distance to the foci from the center is c.

x 2 y = 1 Center =(0,0) Major Axis =10 Minor Axis = 2 Foci: a 2 – b 2 = c 2 25 – 1 = c 2 24 = c 2  24 or 2  6 = c Foci: (0  2  6, 0)

(x-2) 2 (y+3) = 1 Center =(2,-3) Major Axis = Minor Axis =

(x-2) 2 (y+3) = 1 Center =(2,-3) Major Axis = Minor Axis = Foci: 25 – 9 = c 2 16 = c 2 4 = c Foci are at (2, -3  4)

Moving the center >The center will be at (1, -3) >The major axis will be 12 Units long and be parallel to The y-axis. >The minor axis will be 6 units long and be parallel to the x-axis = 1 (x-1) 2 (y+3) = 1 (x-1) 2 (y+3) = 1 (x-1) 2 (y+3)

7x x + 36y y = 104 7(x 2 + 8x ) + 36(y 2 - 2y ) = (x + 4) (y - 1) 2 = (x + 4) 2 (y - 1) = 1

(x+4) 2 (y-1) = 1 Center =(-4, 1) Major Axis =12 Minor Axis = Foci: a 2 - b 2 = c = c 2 29 = c 2  29 = c Add c to the x of the center (-4  29, 1) -  29 +  29

Hyperbola x 2 y = 1 Center:(0,0) Out on the x-axis Out on the y-axis 3 and -3 6 and -6 Draw asymptotes through corners of box slope = ± 6/3 or ± 2/1 Draw hyperbola on the x-axis not crossing the dotted lines.

Foci: a 2 + b 2 = c 2 x 2 y = = c 2 45 = c 2  45 = c (0  45, 0)

9y y - 25x = 169 9(y 2 + 6y ) - 25(x 2 - 2x ) = (y + 3) (x - 1) 2 = (y + 3) 2 (x - 1) = 1

(y+3) 2 (x-1) = 1 Center : (1, -3) Slopes of Asymptotes :  5/3 Foci : a 2 + b 2 = c = c 2 34 = c 2  34 = c Foci: (1,-3  34)