Velocity and Other Rates of Change Notes 3.4. I. Instantaneous Rate of Change A.) Def: The instantaneous rate of change of f with respect to x at a is.

Slides:



Advertisements
Similar presentations
3.4 Velocity and Other Rates of Change
Advertisements

Motion and Force A. Motion 1. Motion is a change in position
Section 2.3 – Product and Quotient Rules and Higher-Order Derivatives
Motion.
Warm Up A particle moves vertically(in inches)along the x-axis according to the position equation x(t) = t4 – 18t2 + 7t – 4, where t represents seconds.
Warm Up Determine the anti-derivative. Then differentiate your answer to check your work Evaluate the definite integral: 3.
Velocity, Acceleration, Jerk
 Example 1:  Find the rate of change of the Area of a circle with respect to its radius.  Evaluate the rate of change of A at r = 5 and r = 10.  If.
R. Field 1/17/2013 University of Florida PHY 2053Page 1 1-d Motion: Position & Displacement We locate objects by specifying their position along an axis.
Derivative as a Rate of Change Chapter 3 Section 4.
Meanings of the Derivatives. I. The Derivative at the Point as the Slope of the Tangent to the Graph of the Function at the Point.
Position, Velocity and Acceleration
3.4 Velocity, Speed, and Rates of Change
3.4 Velocity and Other Rates of Change
Sec 3.7: Rates of Change in the Natural and Social Sciences
Composition of Functions: The process of combining two or more functions in order to create another function. One function is evaluated at a value of the.
Physics 2011 Chapter 2: Straight Line Motion. Motion: Displacement along a coordinate axis (movement from point A to B) Displacement occurs during some.
3.3 –Differentiation Rules REVIEW: Use the Limit Definition to find the derivative of the given function.
CHAPTER 3 DERIVATIVES. Aim #3.4 How do we apply the first and second derivative? Applications of the derivative Physician may want to know how a change.
3.4 Velocity and Rates of Change
Integration By Jason Leitmeyer, Shannon Hunt, Doris Bittner.
Motion in One Dimension Average Versus Instantaneous.
Warmup: YES calculator 1) 2). Warmup Find k such that the line is tangent to the graph of the function.
3.4 Velocity, Speed, and Rates of Change. downward , 8.
Motion Along A Straight Line Position Displacement Speed Velocity Acceleration Rules for Derivatives Free Fall Acceleration Rules for Integration pps by.
Lesson 3-4: Velocity, Speed, and Rates of Change AP Calculus Mrs. Mongold.
2.7 Rates of Change in the Natural and Social Sciences.
3024 Rectilinear Motion AP Calculus On a line. Position Defn: Rectilinear Motion: Movement of object in either direction along a coordinate line (x-axis,
Kinematics- Acceleration Chapter 5 (pg ) A Mathematical Model of Motion.
Velocity and Other Rates of Change Notes: DERIVATIVES.
Calculus Notes 3.4: Rates of Change in the Natural and Social Sciences. Start up: This section discusses many different kinds of examples. What is the.
SECT. 3-A POSITION, VELOCITY, AND ACCELERATION. Position function - gives the location of an object at time t, usually s(t), x(t) or y(t) Velocity - The.
Rates of Change in the Natural and Social Sciences
DIFFERENTIATION RULES We know that, if y = f (x), then the derivative dy/dx can be interpreted as the rate of change of y with respect to x.
1 §2.2 Product and Quotient Rules The student will learn about derivatives marginal averages as used in business and economics, and involving products,involving.
Velocity Acceleration AND. Changing velocities means it is NON-uniform motion - this means the object is accelerating. m/s 2 m/s /s OR = ∆t∆t ∆v∆v a P(m)
Particle Motion: Total Distance, Speeding Up and Slowing Down THOMAS DUNCAN.
AP CALCULUS AB Chapter 3: Derivatives Section 3.4: Velocity and Other Rates of Change.
2.1 Position, Velocity, and Speed 2.1 Displacement  x  x f - x i 2.2 Average velocity 2.3 Average speed  
3.4 Velocity and Other Rates of Change. What you’ll learn about Instantaneous Rates of change Motion Along a Line Sensitivity to Change Derivatives in.
1.8 The Derivative as a Rate of Change. An important interpretation of the slope of a function at a point is as a rate of change.
Instantaneous Velocity The velocity at an instant of time. For a curved graph, use very small intervals of time.
Derivatives Limits of the form arise whenever we calculate a rate of change in any of the sciences or engineering, such as a rate of reaction in chemistry.
Kinematics Descriptions of Motion aka “Kinematics” time ( t ) position (d)  displacement (  d) velocity (v) acceleration (a)
Instantaneous Rate of Change The instantaneous rate of change of f with respect to x is.
3023 Rectilinear Motion AP Calculus. Position Defn: Rectilinear Motion: Movement of object in either direction along a coordinate line (x-axis, or y-axis)
The Derivative as a Rate of Change. In Alg I and Alg II you used the slope of a line to estimate the rate of change of a function with respect to its.
LESSON 42 – RATES OF CHANGE (APPLICATIONS OF DERIVATIVES) - MOTION Math HL1 - Santowski 3/7/15 1 IBHL1 - Calculus - Santowski.
General Physics I Lecturer: Rashadat Gadmaliyev Lecture 2: Position vectors, Trajectory, Velocity Speed and Acceleration.
Wednesday, April 6, 2016MAT 145 Please review TEST #3 Results and see me with questions!
3-4 VELOCITY & OTHER RATES OF CHANGE. General Rate of Change The (instantaneous) rate of change of f with respect to x at a is the derivative! Ex 1a)
Sect. 3-A Position, Velocity, and Acceleration
3.4 Velocity, Speed, and Rates of Change
Natural and Social Sciences
Chap. 2: Kinematics in one Dimension
Calculus I (MAT 145) Dr. Day Monday November 27, 2017
Bellwork.
3.4 Velocity and Other Rates of Change, p. 127
Motion and Force A. Motion 1. Motion is a change in position
2.2C Derivative as a Rate of Change
Contents: 2-1E, 2-5E, 2-9P, 2-13P, 2-33P, 2-36P*
Concepts of Motion Readings: Chapter 1.
Velocity and Other Rates of Change
Velocity, Speed, and Rates of Change
Velocity and Other Rates of Change
3.4 Velocity and Other Rates of Change
3.3 Velocity, Speed, and Rates of Change
In the study of kinematics, we consider a moving object as a particle.
The Fundamental Theorem of Calculus (4.4)
Velocity and Other Rates of Change
Presentation transcript:

Velocity and Other Rates of Change Notes 3.4

I. Instantaneous Rate of Change A.) Def: The instantaneous rate of change of f with respect to x at a is the derivative Provided the limit exists.

B.) Example – 1.) Write the area A of an equilateral triangle as a function of the side length s. 2.) Find the instantaneous rate of change of the area A with respect to s. 3.) Evaluate the rate of change of A at s = 6. 4.) If s is measured in inches and A is measured in square inches, what would be appropriate units for

Note - Take notice of the NOTATION!!! refers to the change in the area of the triangle with respect to the change in the side of the triangle.

II. Rectilinear Motion A.) Def: The motion of a particle back and forth (or up and down), along an axis s over a time t. B.) The displacement of the object over the time interval from is i.e., the change in position.

C.) The average velocity of the object over the same time interval is D.) The instantaneous velocity of the object at any time t is E.) The speed of the object at any time t is

F.) The acceleration of the object at any time t is G.) A particle in rectilinear motion is speeding up if the signs of the velocity and the acceleration are the same. H.) A particle in rectilinear motion is slowing down if the signs of the velocity and the acceleration are the opposite.

III. Derivatives in Economics A.) Let C(x) represent the cost of producing x-tons of steel in a week. The average rate of change in cost on =

The instantaneous rate of change of the cost of production of x is Economists call this marginal cost. This is the prediction of extra cost of producing 1 additional ton of steel per week. SPSE production changes from x to x+1 tons, i.e. h = 1, then the average rate of change in is

We can use C ´(x) to ESTIMATE ΔC i.e., MARGINAL COST ESTIMATES the ACTUAL COST B.) Example: SPSE the cost of producing x number of stoves in a day when 8 to10 are produced per day is given by the following equation: About how much more would it cost to produce 1 more stove in a day?

Calculate C´(10) to predict the additional cost of producing 11 stoves per day.

C.) Find the MARGINAL REVENUE if the company produces 11 stoves per day if the revenue equation is given by