On the. Geometry. of Orbits

Similar documents
(3,4) focus. y=1 directrix

You identified, analyzed, and graphed quadratic functions. (Lesson 1 5) Analyze and graph equations of parabolas. Write equations of parabolas.

Pre Calc. Conics.

Pre-Calc Conics

Pre-Calc. Slide 1 / 160. Slide 2 / 160. Slide 3 / 160. Conics Table of Contents. Review of Midpoint and Distance Formulas

Algebra II B Review 3

CONIC SECTIONS 1. Inscribe a parabola in the given rectangle, with its axis parallel to the side AB

RECTANGULAR EQUATIONS OF CONICS. A quick overview of the 4 conic sections in rectangular coordinates is presented below.

Engineering Graphics, Class 5 Geometric Construction. Mohammad I. Kilani. Mechanical Engineering Department University of Jordan

Pre-Calc. Midpoint and Distance Formula. Slide 1 / 160 Slide 2 / 160. Slide 4 / 160. Slide 3 / 160. Slide 5 / 160. Slide 6 / 160.

2.3: The Human Cannonball

10.1 Curves defined by parametric equations

UNIT I PLANE CURVES AND FREE HAND SKETCHING CONIC SECTIONS

This early Greek study was largely concerned with the geometric properties of conics.

The Ellipse. PF 1 + PF 2 = constant. Minor Axis. Major Axis. Focus 1 Focus 2. Point 3.4.2

CONIC SECTIONS. Teacher's Guide

Polar Conics TEACHER NOTES MATH NSPIRED. Math Objectives. Vocabulary. About the Lesson. TI-Nspire Navigator System

The Geometric Definitions for Circles and Ellipses

C.2 Equations and Graphs of Conic Sections

FOUR CONIC SECTIONS. Sections of a Cone

ENGINEERING CURVES (Week -2)


On Surfaces of Revolution whose Mean Curvature is Constant

DESIGN & COMMUNICATION GRAPHICS Conic Sections 1

Engineering Graphics. Practical Book. Government Engineering College Bhuj (Kutch - Gujarat) Department of Mechanical Engineering

Lecture 3: Geometrical Optics 1. Spherical Waves. From Waves to Rays. Lenses. Chromatic Aberrations. Mirrors. Outline

CONIC SECTIONS. Our starting point is the following definition sketch-

Conceptual Explanations: Analytic Geometry or Conic Sections

Chapter 4: The Ellipse

Math 1330 Section 8.2 Ellipses

Technical Drawing Paper 1 - Higher Level (Plane and Solid Geometry)

Unit 6 Task 2: The Focus is the Foci: ELLIPSES

Mathematics Algebra II Unit 11: Conic Sections

1.6. QUADRIC SURFACES 53. Figure 1.18: Parabola y = 2x 2. Figure 1.19: Parabola x = 2y 2

You may recall from previous work with solving quadratic functions, the discriminant is the value

M.V.S.R. ENGINEERING COLLEGE, NADERGUL HYDERABAD B.E. I/IV I - Internal Examinations (November 2014)

SIDDHARTH GROUP OF INSTITUTIONS :: PUTTUR

Lecture 2: Geometrical Optics. Geometrical Approximation. Lenses. Mirrors. Optical Systems. Images and Pupils. Aberrations.

Stereometry Day #1. Stereometry Day #2

Chapter 9. Conic Sections and Analytic Geometry. 9.1 The Ellipse. Copyright 2014, 2010, 2007 Pearson Education, Inc.

Lecture 2: Geometrical Optics. Geometrical Approximation. Lenses. Mirrors. Optical Systems. Images and Pupils. Aberrations.

Hyperbolas Graphs, Equations, and Key Characteristics of Hyperbolas Forms of Hyperbolas p. 583

Algebra 2 Conic Sections Packet Answers

Algebra 2 Conic Sections Study Guide

Learn new definitions of familiar shapes such as parabolas, hyperbolas, and circles.

UNIT I PLANE CURVES AND FREE HAND SKETCHING 15

INSTITUTE OF AERONAUTICAL ENGINEERING

ENGINEERING GRAPHICS (Engineering Drawing is the language of Engineers)

r = (a cos θ, b sin θ). (1.1)

Volumes of Revolution

a) 2, 4, 8, 14, 22, b) 1, 5, 6, 10, 11, c) 3, 9, 21, 39, 63, d) 3, 0, 6, 15, 27, e) 3, 8, 13, 18, 23,

Bridging the gap between abstract math and reality

B.E. 1 st year ENGINEERING GRAPHICS

An overview of the functionality of GeoGebra

Lecture 4: Geometrical Optics 2. Optical Systems. Images and Pupils. Rays. Wavefronts. Aberrations. Outline

The Folded Rectangle Construction

3D VISUALIZATION OF CONIC SECTIONS IN XNA GAME PROGRAMMING FRAMEWORK. A Thesis. Presented to the. Faculty of. San Diego State University

Technical Graphics Higher Level

Graphing Trig Functions. Objectives: Students will be able to graph sine, cosine and tangent functions and translations of these functions.

Conflict lines and Reflections

David Anderson. Gill & Macmillan

JUNIOR CERTIFICATE 2008 MARKING SCHEME TECHNICAL GRAPHICS HIGHER LEVEL

Chapter 3: LENS FORM Sphere

Precalculus Second Semester Final Review

ORDINARY LEVEL PAST PAPERS

Course Title: ENGINEERING GRAPHICS-I Course Code: 15ME12D. Type of course: Lectures & Practice Total Contact Hours: 78

B.E. I & II SEM ENGINEERING GRAPHICS

Waves & Oscillations

Design & Communication Graphics Higher Level Section A (60 Marks)

2. Polar coordinates:

ENGINEERING DRAWING IM 09 AND GRAPHICAL COMMUNICATION

11.5 Conic Sections. Objective A. To graph a parabola

DESIGN AND COMMUNICATION GRAPHICS SYLLABUS

ALONG THE TRACES OF THE CONIC SECTIONS

Design & Communication Graphics Higher Level Section A (60 Marks)

JUNIOR CERTIFICATE 2009 MARKING SCHEME TECHNICAL GRAPHICS HIGHER LEVEL

Introduction to CATIA V5

Vocabulary Check. Section 10.8 Graphs of Polar Equations not collinear The points are collinear.

Coimisiún na Scrúduithe Stáit State Examinations Commission. Leaving Certificate Marking Scheme. Design and Communication Graphics.

ENGINEERING DRAWING AM 09

Course objective: Understand the basic concepts of electrical current, voltage, resistance Ohm s law and semiconductors.

Design & Communication Graphics Higher Level Sections B and C (180 marks)

SIMPLE DESIGN EQUATIONS FOR OMNIDIRECTIONAL AXIS-DISPLACED DUAL-REFLECTOR ANTENNAS

Now we are going to introduce a new horizontal axis that we will call y, so that we have a 3-dimensional coordinate system (x, y, z).

How to Trisect an Angle (If You Are Willing to Cheat)

Name: ID: Section: Math 233 Exam 2. Page 1. This exam has 17 questions:

Design & Communication Graphics

University of California, Berkeley Department of Mathematics 5 th November, 2012, 12:10-12:55 pm MATH 53 - Test #2

Academic Course Description

Explanation of buttons used for sketching in Unigraphics

ENGINEERING DRAWING AM 09

TECHNICAL DRAWING. SECTION A: will consist of (30) questions drawn from the general principles, techniques and uses of plane and solid geometry.

Group assignments affect the grade of all members in the group Individual assignments only affect the grade of the individual

Design & Communication Graphics Higher Level Section A (60 marks)

Conic and Quadric Surface Lab page 4. NORTHEASTERN UNIVERSITY Department of Mathematics Fall 03 Conic Sections and Quadratic Surface Lab

Course Title: Basics Engineering Drawing (Code: )

What role does the central angle play in helping us find lengths of arcs and areas of regions within the circle?

CHAPTER 10 Conics, Parametric Equations, and Polar Coordinates

Contents. How You May Use This Resource Guide

2 nd Year TG Portfolio

Transcription:

On the Geometry of Orbits

The Possible Orbits

The Possible Orbits circle

The Possible Orbits ellipse

The Possible Orbits parabola

The Possible Orbits hyperbola

Speed and Distance 4000 mi 17,600 mph 1.4 hr

Speed and Distance 3,500 mph 26,200 mi Add 32% 23,200 mph 10.4 hr

Speed and Distance 120,000 mi Add 39% 24,500 mph

Speed and Distance 240,000 mi?

Speed and Distance 240,000 mi Add 40% 24,640 mph

Speed and Distance infinite ellipse Add 41.4% 24,900 mph

Speed and Distance parabola escape speed 24,900 mph

Speed and Distance hyperbola more than escape speed

Speed and Distance parabola terminal velocity: speed 0 escape speed 24,900 mph

Speed and Distance hyperbola terminal velocity: speed excess more than escape speed

The Shallow Section The Conic Sections

The Conic Sections horizontal section

The Conic Sections shallow section

The Conic Sections parallel section

The Conic Sections steep section

The Conic Sections two branches

The Shallow Section Apollonius s Sections of One Cone

The Shallow Section Apollonius s Epicycle Model

The Shallow Section Geometry of the Shallow Section

The Shallow Section Geometry of the Shallow Section

The Shallow Section Geometry of the Shallow Section

Geometry of the Shallow The Shallow Section Section F 1

Geometry of the Shallow The Shallow Section Section F 1 P

Geometry of the Shallow The Shallow Section Section F 1 P

Tangents from a Common Point

Geometry of the Shallow The Shallow Section Section F 1 P

Geometry of the Shallow Section P

Geometry of the Shallow Section F 2 P

Geometry of the Shallow Section F 2 P

Geometry of the Shallow Section F 2 F 1 P

Geometry of the Shallow Section Add PF 1 and PF 2. F 2 F 1 P

Geometry of the Shallow Section PF 1 + PF 2 = distance between the bands F 1 P F 2

Definition of the Ellipse There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve add up to a fixed number.

Definition of the Ellipse There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve add up to a fixed number. PF 1 + PF 2 = constant P F 1 F 2

Properties of the Ellipse There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve add up to a fixed number. The ellipse is left-right and updown symmetric.

Properties of the Ellipse There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve add up to a fixed number. The main axis (the one with the foci) is as long as the sum of the focal radii.

Properties of the Ellipse There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve add up to a fixed number. The main axis is longer than the other: M 2 = m 2 + f 2

Properties of the Ellipse There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve add up to a fixed number. The ratio = f/m (the eccentricity ) determines the shape of the ellipse.

Eccentricity and the Shape of the Ellipse M 2 = m 2 + f 2 and = f/m lead to m = M (1 2 ).

Eccentricity and the Shape of the Ellipse M 2 = m 2 + f 2 and = f/m lead to m = M (1 2 ). Earth: =.02 m = M(.9998)

Eccentricity and the Shape of the Ellipse M 2 = m 2 + f 2 and = f/m lead to m = M (1 2 ). Earth: =.02 m = M(.9998) Mars: =.09 m = M(.996)

Eccentricity and the Shape of Two Familiar Orbits 91 Earth Sun 94.5

Eccentricity and the Shape of Two Familiar Orbits 128 Mars 91 Earth Sun 94.5 155

Definition of the Ellipse PF 1 + PF 2 = constant P F 1 F 2

Definition of the Hyperbola PF 2 PF 1 = constant F 1 P F 2

Definition of the Hyperbola There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve differ by a fixed number. PF 2 PF 1 = constant F 1 P F 2

Definition of the Hyperbola There are two fixed points ( foci ) for which the two distances ( focal radii ) from any point of the curve differ by a fixed number. F 1 F 2 Q QF 1 QF 2 = constant

Seismography and the Hyperbola Suppose San Francisco hears an earthquake at 12, New York hears at 5, Miami hears at 5:12.

Seismography and the Hyperbola distance to New York - distance to San Francisco = 2,000 mi

Seismography and the Hyperbola distance to New York - distance to San Francisco = 2,000 mi

Seismography and the Hyperbola distance to Miami - distance to San Francisco = 2,200 mi

Seismography and the Hyperbola Location: Elko NV

More Geometry The Shallow Section of the Sections F 1 P

More Geometry The Shallow Section of the Sections F 1 P

More Geometry The Shallow Section of the Sections F 1 P Q

More Geometry The Shallow Section of the Sections F 1 P Q 35 65

More Geometry The Shallow Section of the Sections F 1 P Q R S 35 65

More Geometry The Shallow Section of the Sections P 35 Q PS/PQ= sin 35 S

More Geometry The Shallow Section of the Sections P PS/PR= sin 65 R 65 S

More Geometry The Shallow Section of the Sections F 1 P PR/PF 1 = sin 65 R 65 S

More Geometry The Shallow Section of the Sections F 1 P Q PF 1 /PQ= sin 35 /sin 65

More Geometry of the Sections PF 1 /PQ = sin 35 /sin 65 P F 1 Q

More Geometry of the Sections PF 1 /PQ = constant less than 1 P F 1 Q

More Geometry of the Sections PF 1 /PQ = eccentricity P F 1 Q

Alternate Description of the Ellipse There is a line ( directrix ) such that distance to focus distance to line = eccentricity P F 1 Q

Eccentricity in the Sections 35 eccentricity = sin 35 /sin 65 65

Eccentricity in the Sections 0 eccentricity = sin 0 /sin 65

Eccentricity in the Sections 0 eccentricity = 0

Eccentricity in the Sections The eccentricity of the circle is 0.

Eccentricity in the Sections 35 eccentricity = sin 35 /sin 65 65

Eccentricity in the Sections 65 eccentricity = sin 65 /sin 65 65

Eccentricity in the Sections eccentricity = 1

Eccentricity in the Sections The eccentricity of the parabola is 1.

Definition of the Parabola PF 1 /PQ = sin 65 /sin 65 P F 1 Q

Definition of the Parabola PF 1 = PQ P F 1 Q

Definition of the Parabola P F 1 Q For every point, distance to the focus equals distance to the directrix.

Eccentricity in the Sections 80 eccentricity = sin 80 /sin 65 65

Eccentricity in the Sections PF 1 /PQ = sin 80 /sin 65 F 1 P Q

Eccentricity in the Sections PF 1 /PQ = constant greater than 1 F 1 P Q

Geometry of the Steep Section Eccentricity of the hyperbola exceeds 1. F 1 P Q

Speed and Eccentricity 17,600 mph

Speed and Eccentricity circle eccentricity = (v/v 0 ) 2 1 = 1 2 1 = 0 17,600 mph

Speed and Eccentricity 26,200 mi Add 32% 23,200 mph

Speed and Eccentricity ellipse eccentricity = (v/v 0 ) 2 1 = 1.32 2 1 0.74 26,200 mi Add 32% 23,200 mph

Speed and Eccentricity ellipse eccentricity = (v/v 0 ) 2 1 = 1.39 2 1 0.93 120,000 mi Add 39% 24,500 mph

Speed and Eccentricity eccentricity = (v/v 0 ) 2 1 = 1.414 2 1 Add 41.4% 24,900 mph

Speed and Eccentricity parabola eccentricity = (v/v 0 ) 2 1 = ( 2) 2 1 = 1 Add 41.4% 24,900 mph

Speed and Eccentricity hyperbola eccentricity = (v/v 0 ) 2 1 = 1.5 2 1 = 1.25 Add 50% 26,400 mph

Elements of the Parabola one axis F one directrix

Elements of the Parabola baseline F

Extent of the Parabola F no points below the baseline

Elements of the Parabola no points along the axis F no points below the baseline

Extent of the Parabola points in all other directions F

Elements of the Hyperbola F 1 one axis

Elements of the Hyperbola F 1 F 2 second focus and directrix

Elements of the Hyperbola F 1 second axis F 2

Elements of the Hyperbola F 1 F 2

Elements of the Hyperbola F 1 F 2

Extent of the Hyperbola Hyperbola is confined to the gray region. F 1 F 2

Reflection Properties: the Ellipse F 1 F 2

Reflection Properties: the Ellipse F 1 F 2

Reflection Properties: the Ellipse F 1 F 2

Reflection Properties: the Parabola P F

Reflection Properties: the Parabola P F

Reflection Properties: the Hyperbola F 1 F 2

Reflection Properties: the Hyperbola F 1 F 2

Reflection Properties: the Hyperbola F 1 F 2

Reflection Properties: the Hyperbola F 1 F 2

Telescopes and the Conics

Telescopes and the Conics

Telescopes and the Conics

Telescopes and the Conics

Telescopes and the Conics

Telescopes and the Conics