Related Rates Section 4.6. First, a review problem: Consider a sphere of radius 10cm. If the radius changes 0.1cm (a very small amount) how much does.

Slides:



Advertisements
Similar presentations
5.5 Section 4.6 – Related Rates
Advertisements

2.6 Related Rates.
RELATED RATES PROBLEMS
ITK-122 Calculus II Dicky Dermawan
Section 4.6 – Related Rates PICK UP HANDOUT FROM YOUR FOLDER 5.5.
Section 2.6 Related Rates.
4.6: Related Rates. First, a review problem: Consider a sphere of radius 10cm. If the radius changes 0.1cm (a very small amount) how much does the volume.
Teresita S. Arlante Naga City Science High School.
2.7 Related Rates.
8. Related Rates.
When we first started to talk about derivatives, we said that becomes when the change in x and change in y become very small. dy can be considered a very.
2.6 Related Rates. Related Rate Problems General Steps for solving a Related Rate problem Set up: Draw picture/ Label now – what values do we know.
Definition: When two or more related variables are changing with respect to time they are called related rates Section 2-6 Related Rates.
Section 2.6 Related Rates Read Guidelines For Solving Related Rates Problems on p. 150.
Related rates.
2.8 Related Rates.
1 Related Rates Finding Related Rates ● Problem Solving with Related Rates.
Related Rates Test Review
Aim: How do we find related rates when we have more than two variables? Do Now: Find the points on the curve x2 + y2 = 2x +2y where.
Review- 4 Rates of Change
Review Problem: Use implicit differentiation to find If.
Section 4.1: Related Rates Practice HW from Stewart Textbook (not to hand in) p. 267 # 1-19 odd, 23, 25, 29.
R ELATED R ATES. The Hoover Dam Oil spills from a ruptured tanker and spreads in a circular pattern. If the radius of the oil spill increases at a constant.
3.9 Related Rates 1. Example Assume that oil spilled from a ruptured tanker in a circular pattern whose radius increases at a constant rate of 2 ft/s.
Olympic National Park, Washington Greg Kelly, Hanford High School, Richland, WashingtonPhoto by Vickie Kelly, : Related Rates.
Calculus warm-up Find. xf(x)g(x)f’(x)g’(x) For each expression below, use the table above to find the value of the derivative.
Warmup 1) 2). 4.6: Related Rates They are related (Xmas 2013)
Related Rates 3.7. Finding a rate of change that cannot be easily measured by using another rate that can be is called a Related Rate problem. Steps for.
Related Rates 5.6. First, a review problem: Consider a sphere of radius 10cm. If the radius changes 0.1cm (a very small amount) how much does the volume.
Related Rates Greg Kelly, Hanford High School, Richland, Washington.
A street light is at the top of a 10 ft tall pole
In this section, we will investigate the question: When two variables are related, how are their rates of change related?
Related Rates. The chain rule and implicit differentiation can be used to find the rates of change of two or more related variables that are changing.
Related Rates. I. Procedure A.) State what is given and what is to be found! Draw a diagram; introduce variables with quantities that can change and constants.
4.6: Related Rates Greg Kelly, Hanford High School, Richland, Washington.
Chapter 5: Applications of the Derivative
Warmup : Consider a sphere of radius 10cm. If the radius changes 0.1cm (a very small amount) how much does the volume change?
4.6: Related Rates Greg Kelly, Hanford High School, Richland, Washington.
RELATED RATES DERIVATIVES WITH RESPECT TO TIME. How do you take the derivative with respect to time when “time” is not a variable in the equation? Consider.
4.6: Related Rates. A square with sides x has an area If a 2 X 2 square has it’s sides increase by 0.1, use differentials to approximate how much its.
Sec 4.1 Related Rates Strategies in solving problems: 1.Read the problem carefully. 2.Draw a diagram or pictures. 3.Introduce notation. Assign symbols.
in terms of that of another quantity.
4.1 Related Rates Greg Kelly, Hanford High School, Richland, Washington.
5.8: Intermediate Related Rates. Sand is poured on a beach creating a cone whose radius is always equal to twice its height. If the sand is poured at.
Warm Up Day two Write the following statements mathematically John’s height is changing at the rate of 3 in./year The volume of a cone is decreasing.
4.6: Related Rates. First, a review problem: Consider a sphere of radius 10cm. If the radius changes 0.1cm (a very small amount) how much does the.
4.1: Related Rates Greg Kelly, Hanford High School, Richland, Washington.
Olympic National Park, Washington Greg Kelly, Hanford High School, Richland, WashingtonPhoto by Vickie Kelly, : Related Rates.
Find if y 2 - 3xy + x 2 = 7. Find for 2x 2 + xy + 3y 2 = 0.
Warm-up A spherical balloon is being blown up at a rate of 10 cubic in per minute. What rate is radius changing when the surface area is 20 in squared.
Warm up 1. Calculate the area of a circle with diameter 24 ft. 2. If a right triangle has sides 6 and 9, how long is the hypotenuse? 3. Take the derivative.
4.6: Related Rates Created by Greg Kelly, Hanford High School, Richland, Washington Revised by Terry Luskin, Dover-Sherborn HS, Dover, Massachusetts.
Sect. 2.6 Related Rates.
4.6 Related Rates.
Related Rates Olympic National Park, Washington
Chapter 3, Section 8 Related Rates Rita Korsunsky.
4.6: Related Rates Olympic National Park, Washington
Related Rates 2.7.
Section 2.6 Calculus AP/Dual, Revised ©2017
AP Calculus Mrs. Mongold
4.1: Related Rates Greg Kelly, Hanford High School, Richland, Washington.
4.6: Related Rates Olympic National Park, Washington
Related Rates Olympic National Park, Washington
4.6: Related Rates Greg Kelly, Hanford High School, Richland, Washington.
4.6: Related Rates Olympic National Park, Washington
AP Calculus AB 5.6 Related Rates.
4.6: Related Rates Olympic National Park, Washington
4.6: Related Rates Greg Kelly, Hanford High School, Richland, Washington.
Related Rates AP Calculus Keeper 26.
Presentation transcript:

Related Rates Section 4.6

First, a review problem: Consider a sphere of radius 10cm. If the radius changes 0.1cm (a very small amount) how much does the volume change? The volume would change by approximately.

Now, suppose that the radius is changing at an instantaneous rate of 0.1 cm/sec. The sphere is growing at a rate of. Take derivative with respect to TIME. (Possible if the sphere is a soap bubble or a balloon.) At what rate is the the sphere?

Water is draining from a cylindrical tank of radius 3 at 3000 cm 3 /second. How fast is the surface dropping? Find (We need a formula to relate V and h. ) The water level is dropping at -1000/3π cm/sec.

Steps for Related Rates Problems: 1. Draw a picture (sketch). 2. Write down known information. 3. Write down what you are looking for. 4. Write an equation to relate the variables. 5. Differentiate both sides with respect to t. 6. Evaluate.

Hot Air Balloon Problem: Given: How fast is the balloon rising? Find

B A Truck Problem: How fast is the distance between the trucks changing 6 minutes later? Truck A travels east at 40 mi/hr. Truck B travels north at 30 mi/hr. 

A 14 foot ladder is leaning against a wall. If the top of the ladder slips down the wall at a rate of 2 ft/s, how fast will the end be moving away from the wall when the top is 6 ft above the ground? 14 x y L The ladder is moving away at a rate of How fast is the area changing?

A 14 foot ladder is leaning against a wall. If the top of the ladder slips down the wall at a rate of 2 ft/s, let’s now find how fast the area of the triangle is changing when the top is 6 ft above the ground? 14 x y L

A man 6 ft tall is walking at a rate of 2 ft/s toward a street light 16 ft tall. At what rate is the size of his shadow changing? 6 16 x y The size of his shadow is reducing at a rate of 6/5 ft/s.

A boat whose deck is 10 ft below the level of a dock, is being drawn in by means of a rope attached to a pulley on the dock. When the boat is 24 ft away and approaching the dock at ½ ft/sec, how fast is the rope being pulled in? x y R The rope is being pulled in at a rate of 6/13 ft/sec.

A pebble is dropped into a still pool and sends out a circular ripple whose radius increases at a constant rate of 4 ft/s. How fast is the area of the region enclosed by the ripple increasing at the end of 8 seconds. At t = 8, r = (8)(4) = 32 The area is increasing at a rate of ft 2 /sec.

A spherical container is deflated such that its radius decreases at a constant rate of 10 cm/min. At what rate must air be removed when the radius is 5 cm? Air must be removed at a rate of ft 3 /min.

Sand pours into a conical pile whose height is always one half its diameter. If the height increases at a constant rate of 4 ft/min, at what rate is sand pouring from the chute when the pile is 15 ft high? The sand is pouring from the chute at a rate of ft 3 /min.

Liquid is pouring through a cone shaped filter at a rate of 3 cubic inches per minute. Assume that the height of the cone is 12 inches and the radius of the base of the cone is 3 inches. How rapidly is the depth of the liquid in the filter decreasing when the level is 6 inches deep? 12 3 h r The depth of the liquid is decreasing at a rate of in/sec.

If and x is decreasing at the rate of 3 units per second, the rate at which y is changing when y = 2 is nearest to: a. –0.6 u/s b. –0.2 u/s c. 0.2 u/s d. 0.6 u/s e. 1.0 u/s