AP Calculus AB: 7.3.4 The Can Problem
This flashcard set focuses on optimization problems involving cylindrical cans, where the goal is to maximize volume given a fixed surface area or minimize material usage. It covers deriving volume formulas in terms of radius, differentiating to find critical points, and interpreting results to determine the optimal dimensions, supported by real-world application examples.
The Can Problem
Values that make the derivative of a function equal to 0 or undefined are candidates for maxima and minima of the function.
The can problem involves maximizing the volume of a cylindrical can constructed from a given quantity of material.
Key Terms
The Can Problem
Values that make the derivative of a function equal to 0 or undefined are candidates for maxima and minima of the function.
...
note
Here you are asked to find the dimensions of a can made from a certain amount of material in a way that maximizes the volume of the can.
The average soda can is made up of 15.625π square inches of material. What dimensions (to the nearest hundredth) would maximize the volume of this cylindrical can?
r = 1.61 inches
h = 3.23inchesWhat is the maximum volume of an open cylinder (open at both ends)with surface area equal to 16π ft2 and a radius between 1 and 8 feet?
64π ft3
Your average soda can has a height of 5 inches and a circular top and bottom with a diameter of 2.5 inches. What is the surface area of this soda can?
15.625π in2
You are an engineer working for a shipping company who is air mailing huge amounts of gasoline across the country. Your supervisor tells you that the guys upstairs in the suits want to package the gasoline in cylindrical containers that hold 10π cubic feet of gasoline. It is your job to minimize the cost of the packaging materials. What radius should the cylinders have to minimize the amount of packaging material?
^3√5 feet
Related Flashcard Decks
Study Tips
- Press F to enter focus mode for distraction-free studying
- Review cards regularly to improve retention
- Try to recall the answer before flipping the card
- Share this deck with friends to study together
| Term | Definition |
|---|---|
The Can Problem |
|
note |
|
The average soda can is made up of 15.625π square inches of material. What dimensions (to the nearest hundredth) would maximize the volume of this cylindrical can? | |
What is the maximum volume of an open cylinder (open at both ends)with surface area equal to 16π ft2 and a radius between 1 and 8 feet? | 64π ft3 |
Your average soda can has a height of 5 inches and a circular top and bottom with a diameter of 2.5 inches. What is the surface area of this soda can? | 15.625π in2 |
You are an engineer working for a shipping company who is air mailing huge amounts of gasoline across the country. Your supervisor tells you that the guys upstairs in the suits want to package the gasoline in cylindrical containers that hold 10π cubic feet of gasoline. It is your job to minimize the cost of the packaging materials. What radius should the cylinders have to minimize the amount of packaging material? | ^3√5 feet |
What is the maximum volume for a closed cylinder with surface area equal to 150 square inches? | 141.047 cubic inches |
Your average soda can has a height of 5 inches and a circular top and bottom with a diameter of 2.5 inches. What is the volume of this soda can? | 7.8125π in3 |