Math Problem Statement
Solution
Problem Breakdown and Solutions:
Question 2
- Given: Priya is stacking boxes. Each box is 2.25 cm tall. She starts with 3 boxes.
- a) Complete the table for , the height of the stack after additional boxes are added.
We calculate : The initial height with 3 boxes: For each additional box: Thus, the function becomes:
(cm) | |
---|---|
0 | 6.75 |
1 | 6.75 + 2.25 = 9.00 |
2 | 6.75 + 4.50 = 11.25 |
3 | 6.75 + 6.75 = 13.50 |
- b) Does make sense? To calculate : This makes sense because the formula is valid for any non-negative integer and represents the height after stacking boxes.
Question 3
-
Given: A piece of paper starts with an area of 54 square inches. Each person cuts of the remaining area.
-
a) Complete the table for , the area after cuts.
The recursive pattern is: Calculate:
(sq in) | |
---|---|
0 | 54 |
1 | 36 |
2 | 24 |
3 | 16 |
-
b) Define for the -th term: The explicit formula for :
-
c) Reasonable domain: Since the cutting process continues indefinitely, can be any non-negative integer: This makes sense because represents the number of cuts, and it cannot be negative.
Next Steps
Let me know if you'd like further clarifications!
Here are 5 related questions to extend learning:
- How would the formula for change if the initial stack had 5 boxes?
- What happens to as ?
- How do recursive and explicit formulas differ in practical applications?
- Can or have real (non-integer) values for ?
- How would the stacking formula change if each box had a different height?
Tip: Always look for patterns in repetitive calculations to derive general formulas quickly!
Ask a new question for Free
By Image
Drop file here or Click Here to upload
Math Problem Analysis
Mathematical Concepts
Linear functions
Recursive sequences
Exponential decay
Domain and range in functions
Formulas
h(n) = Initial height + Height of additional boxes
h(n) = 6.75 + 2.25n
A(n) = A(0) * (2/3)^n
A(n) = Recursive formula: A(n) = (2/3) * A(n-1)
Theorems
-
Suitable Grade Level
Grades 6-8
Related Recommendation
Understanding Stack Height as a Function of Cup Count
Proportional Relationships and Depreciation of Value - Stack of Books and Phone Value Problem
Exponential Decay: Maximum Height of a Bouncing Ball
Exponential Decay Function for Thickness Planing
Linear Relationship in Stacking Cups: Predicting Height for Tupper-Made Packaging