Awesome Assorted Applications!!! (alliteration!!!) Sec. 2.1c, you are too cool…

Slides:



Advertisements
Similar presentations
Free Fall Chapter 2 Section 3. Free Fall  Free Fall – An object in free fall falls at a constant acceleration towards the surface of a planet neglecting.
Advertisements

Gravity and free fall.
Physics. Session Kinematics - 3 Session Objectives Problems ? Free fall under gravity.
ACCELLERATION -Acceleration shows how fast velocity changes - Acceleration is the “velocity of velocity”
Jeopardy Vectors 1-D Holdover Concepts Calcu- lations Pictures $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 Final Jeopardy.
Chapter 3 Free Fall Motion
Today’s Topic Free Fall What is Free Fall? Free Fall is when an object moves downward (vertically) only as the result of gravity.
Free Fall Chapter 2 Section 3.
Chapter 9: Quadratic Equations and Functions
Science Starter! Consider a ball thrown directly overhead. 1.Describe what happens to its velocity (in terms of speed and direction) on (a) the way up,
Warm - up Problem: A sprinter accelerates from rest to 10.0 m/s in 1.35s. a.) What is her acceleration? b.) How far has she traveled in 1.35 seconds?
Quadratic graphs Today we will be able to construct graphs of quadratic equations that model real life problems.
Unit 4 Class Notes Accelerated Physics Projectile Motion Days 1 thru 3.
Math Bingo The review Game.
Simulating Motion with Parametric Equations Sec. 6.3b is getting interesting… HW: p odd.
Warm-up Problems Simplify Solve -2(x – 3)2 = 24
Essential Question: How do you find the vertex of a quadratic function?
Name_______________________________________________ Date __________ Per _______ Quadratic Applications pt 1 1. The length of a rectangle is x ft and the.
To use quadratic functions to model and solve equations based on (time, height) relationships for projectiles. To solve quadratic equations using graphs,
Graphs of Quadratic Functions Any quadratic function can be expressed in the form Where a, b, c are real numbers and the graph of any quadratic function.
Ch 2 – Polynomial and Rational Functions 2.1 – Quadratic Functions.
Projectile Motion Projectile motion: a combination of horizontal motion with constant horizontal velocity and vertical motion with a constant downward.
10 extra topic: Projectile Motion Greg Kelly, Hanford High School, Richland, Washington Photo by Vickie Kelly, 2002 Fort Pulaski, GA.
Free Fall Motion Notes Day 4.
Definition of a Polynomial Function Let n be a nonnegative integer and let a n, a n-1,…, a 2, a 1, a 0, be real numbers with a n  0. The function defined.
Quiz 4-3 Factor:
9-4 Quadratic Equations and Projectiles
The Height Equation. h= ending height g = gravity constant (32 if feet, 9.8 if meters) v 0 = initial velocity h 0 = initial height t = time.
10.4 Projectile Motion Greg Kelly, Hanford High School, Richland, Washington Photo by Vickie Kelly, 2002 Fort Pulaski, GA.
10.4 Projectile Motion Fort Pulaski, GA. One early use of calculus was to study projectile motion. In this section we assume ideal projectile motion:
Quadratic word problems
PRE-AP PRE- CALCULUS CHAPTER 2, SECTION 1 Linear and Quadratic Functions and Modeling
Free Falling Objects Physic 11. Humour: Freely Falling Objects  A freely falling object is any object moving freely under the influence of gravity alone.
SECTION 3.4 POLYNOMIAL AND RATIONAL INEQUALITIES POLYNOMIAL AND RATIONAL INEQUALITIES.
Goal: To projectile motions Objectives: 1)To understand freefall motions in 1 D 2)To understand freefall motions in 2D 3)To understand air drag and terminal.
Copyright Sautter General Problem Solving Steps (1) Read the problem more than once (three of four times is preferable) (2) Decide what is to be.
Ahhh! I’m falling Free Fall and Physics. Free Fall 3 IMPORTANT things to remember – We are ignoring fiction. – The object’s mass or shape doesn’t matter.
MOTION IN ONE DIMENSION AVERAGE / INSTANTANEOUS SPEED POSITION AND DISPLACEMENT AVERAGE / INSTANTANEOUS VELOCITY AVERAGE / INSTANTANEOUS ACCELERATION.
CHAPTER 6 MOTION IN 2 DIMENSIONS.
Quadratics Review y = x 2. Quadratics Review This graph opens upwards y = x 2.
Today in Pre-Calculus Go over homework Notes: (need book and calculator) –Modeling Homework.
Real Life Quadratic Equations Maximization Problems Optimization Problems Module 10 Lesson 4:
An Application Activity
Freefall.  Remember our three kinematics:  a = (v f -v i ) t  ∆ d = v i t + (1/2)at 2  v f 2 = v i 2 + 2a ∆ d.
Acceleration due to Gravity A special case study of uniform acceleration.
1© Manhattan Press (H.K.) Ltd. 2.4 Motion under gravity.
Unit 3 - Polynomial, Power and Rational Functions 2.1 Linear & Quadratic Functions Recognize and graph linear and quadratic functions Use these functions.
Projectile Motion Problem
5.6 Projectiles Launched at an Angle. No matter the angle at which a projectile is launched, the vertical distance of fall beneath the idealized straight-line.
If your pen falls off your desk does it accelerate? If I drop a pen, what is its initial speed? How fast is it going just before it hits the ground? ZERO.
VERTICAL ONE DIMENSIONAL MOTION.  Relate the motion of a freely falling body to motion with constant acceleration.  Calculate displacement, velocity,
VERTICAL ONE DIMENSIONAL MOTION.  Relate the motion of a freely falling body to motion with constant acceleration.  Calculate displacement, velocity,
Free Fall A.Free Fall: i.An object moving under the influence of gravity in 1-D (vertical direction).
Warm - up 1) Enter the data into L1 and L2 and calculate a quadratic regression equation (STAT  calc Quadreg). Remember: time – x distance – y. 2) Find.
Linear Motion. Displacement The change in position for a given time interval.
Word Problems With Quadratics
22. Use this table to answer the question.
Awesome Assorted Applications!!! (2.1c alliteration!!!)
10.4 Projectile Motion Fort Pulaski, GA Mackinaw Island, Michigan
By: Jeffrey Bivin Lake Zurich High School
Section 3.3 Quadratic Functions
Free Fall All bodies accelerate downwards at -10m/s2 on earth regardless of mass (in the absence of air resistance). On the moon, the acceleration due.
By: Jeffrey Bivin Lake Zurich High School
Vertical Motion Problems
Warm-up Activity Determine which of the following are polynomial functions. If so, state the degree and leading coefficient of each polynomial. f(x) =
Quadratic Function model
WARM-UP If an object starts at rest and accelerates through a certain distance in a certain amount of time……. How farther would it go if accelerates for.
Free fall Definition: movement under the force of gravity only.
Unit 6 Review Day 1 – Day 2 Class Quiz
Projectile Motion Elliott.
Presentation transcript:

Awesome Assorted Applications!!! (alliteration!!!) Sec. 2.1c, you are too cool…

The “Do Now”: A large painting in the style of Rubens is 3 ft longer than it is wide. If the wooden frame is 12 in. wide, the area of the picture and frame is 208 sq ft, find the dimensions of the painting. Total Area: Dimensions: 11 ft by 14 ft x x

Remember this model?: Price per cereal box Cereal boxes sold Use this equation to develop a model for the total weekly revenue on sales of a specific cereal. Revenue equals the price per box (x) multiplied by the number of boxes sold (y): Graph and calculate the maximum!!!  The ideal price should be $2.40 per box, which would yield a maximum revenue of about $88,227.

What about models for FREE FALL?!?! Vertical Free-Fall Motion The height s and vertical velocity v of an object in free fall are given by and is time (in seconds) is the acceleration due to gravity is the initial vertical velocity of the object is the initial height of the object

Free-Fall Motion Example: As a promotion for a new ballpark, a competition is held to see who can throw a baseball the highest from the front row of the upper deck of seats, 83 ft above field level. The winner throws the ball with an initial vertical velocity of 92 ft/sec and it lands on the infield grass. 1. Write the models for height and velocity in this situation.

Free-Fall Motion Example: As a promotion for a new ballpark, a competition is held to see who can throw a baseball the highest from the front row of the upper deck of seats, 83 ft above field level. The winner throws the ball with an initial vertical velocity of 92 ft/sec and it lands on the infield grass. 2. Find the maximum height of the baseball. Coordinates of the vertex: The maximum height of the baseball is feet above field level.

Free-Fall Motion Example: As a promotion for a new ballpark, a competition is held to see who can throw a baseball the highest from the front row of the upper deck of seats, 83 ft above field level. The winner throws the ball with an initial vertical velocity of 92 ft/sec and it lands on the infield grass. 3. Find the amount of time the baseball is in the air. Graph the height function, and calculate the positive-valued zero of this function… window: [0, 7] by [–50, 250] The baseball is in the air for approximately seconds …because this is when it hits the ground!!!

Free-Fall Motion Example: As a promotion for a new ballpark, a competition is held to see who can throw a baseball the highest from the front row of the upper deck of seats, 83 ft above field level. The winner throws the ball with an initial vertical velocity of 92 ft/sec and it lands on the infield grass. 4. Find the vertical velocity of the baseball when it hits the ground. The baseball’s downward rate is ft/sec when it hits the ground Use our answer for the previous question, plug into the equation for vertical velocity!!!

The following data were gathered by measuring the distance from the ground to a rubber ball after it was thrown upward: Time (sec)Height (m) Use these data to write models for the height and vertical velocity of the ball. First, create a scatter plot  what type of regression should we use? How well does this model fit the data? How do we use this model to develop an equation for vertical velocity?

The following data were gathered by measuring the distance from the ground to a rubber ball after it was thrown upward: Time (sec)Height (m) Use these models to predict the maximum height of the ball and its vertical velocity when it hits the ground. The ball reaches a maximum height of approx m, and has a downward rate of approx m/sec when it hits the ground.