Question
give me a word problem about 4.16643 x 10^3 and 3.99708 x 10^3
Answers
Answer
make it a division word problem
Answer
smaller
Answer
division
Answered by
GPT-4o mini
Sure! Here’s a word problem involving the numbers \(4.16643 \times 10^3\) and \(3.99708 \times 10^3\).
---
**Word Problem:**
A company is analyzing its monthly sales data for two different products over the last year.
1. Product A has yearly sales of \(4.16643 \times 10^3\) units.
2. Product B has yearly sales of \(3.99708 \times 10^3\) units.
**Questions:**
a) What is the total number of units sold for both products combined over the year?
b) If Product A sells at a price of $20 per unit and Product B sells at $25 per unit, calculate the total revenue generated from both products for the year.
---
**Solution:**
a) To find the total units sold, you need to add the sales of Product A and Product B:
\[
4.16643 \times 10^3 + 3.99708 \times 10^3 = (4.16643 + 3.99708) \times 10^3
\]
Calculating the sum:
\[
4.16643 + 3.99708 = 8.16351
\]
So, the total number of units sold is:
\[
8.16351 \times 10^3
\]
b) To calculate the total revenue from both products:
- Revenue from Product A:
\[
\text{Revenue A} = 4.16643 \times 10^3 \times 20 = 83,328.6
\]
- Revenue from Product B:
\[
\text{Revenue B} = 3.99708 \times 10^3 \times 25 = 99,927
\]
- Total revenue:
\[
\text{Total Revenue} = 83,328.6 + 99,927 = 183,255.6
\]
Thus, the total revenue generated from both products for the year is $183,255.60.
---
Feel free to let me know if you need any more problems or explanations!
---
**Word Problem:**
A company is analyzing its monthly sales data for two different products over the last year.
1. Product A has yearly sales of \(4.16643 \times 10^3\) units.
2. Product B has yearly sales of \(3.99708 \times 10^3\) units.
**Questions:**
a) What is the total number of units sold for both products combined over the year?
b) If Product A sells at a price of $20 per unit and Product B sells at $25 per unit, calculate the total revenue generated from both products for the year.
---
**Solution:**
a) To find the total units sold, you need to add the sales of Product A and Product B:
\[
4.16643 \times 10^3 + 3.99708 \times 10^3 = (4.16643 + 3.99708) \times 10^3
\]
Calculating the sum:
\[
4.16643 + 3.99708 = 8.16351
\]
So, the total number of units sold is:
\[
8.16351 \times 10^3
\]
b) To calculate the total revenue from both products:
- Revenue from Product A:
\[
\text{Revenue A} = 4.16643 \times 10^3 \times 20 = 83,328.6
\]
- Revenue from Product B:
\[
\text{Revenue B} = 3.99708 \times 10^3 \times 25 = 99,927
\]
- Total revenue:
\[
\text{Total Revenue} = 83,328.6 + 99,927 = 183,255.6
\]
Thus, the total revenue generated from both products for the year is $183,255.60.
---
Feel free to let me know if you need any more problems or explanations!
Answered by
GPT-4o mini
Sure! Here’s a word problem that involves division using the numbers \(4.16643 \times 10^3\) and \(3.99708 \times 10^3\).
---
**Word Problem:**
A factory produces two types of widgets: Widget A and Widget B.
1. Last month, the factory produced **4,166.43** units of Widget A (\(4.16643 \times 10^3\)).
2. The factory produced **3,997.08** units of Widget B (\(3.99708 \times 10^3\)).
The factory wants to divide the total number of Widget A produced into smaller batches. Each batch contains the same number of units, equal to the total number of Widget B produced.
**Questions:**
a) How many batches of Widget A can be made if each batch contains the same number of units as the total number of Widget B produced?
b) If the factory decides to keep one extra unit of Widget A aside after creating all the full batches, how many complete batches of Widget A can be produced with the remaining units?
---
### Solution:
a) To find out how many batches of Widget A can be produced from the total units of Widget B, you would divide the total number of units of Widget A by the number of units of Widget B:
\[
\text{Batches} = \frac{4.16643 \times 10^3}{3.99708 \times 10^3}
\]
Calculating the division:
\[
\text{Batches} = \frac{4166.43}{3997.08} \approx 1.0423 \text{ (approximately)}
\]
Since you can only have complete batches, the factory can make **1 complete batch** of Widget A.
b) To find the remaining units of Widget A after creating complete batches:
1. Calculate how many units are used for 1 complete batch (which is the total number of units of Widget B):
\(3,997.08\) units.
2. Subtract this from the total units of Widget A produced:
\[
\text{Remaining Units} = 4,166.43 - 3,997.08 = 169.35
\]
So, the factory has **169.35** units of Widget A left after making 1 complete batch. As you can't make another complete batch with fewer than \(3,997.08\) units, there will be no more complete batches possible given the leftover.
---
Let me know if you have further questions or need additional problems!
---
**Word Problem:**
A factory produces two types of widgets: Widget A and Widget B.
1. Last month, the factory produced **4,166.43** units of Widget A (\(4.16643 \times 10^3\)).
2. The factory produced **3,997.08** units of Widget B (\(3.99708 \times 10^3\)).
The factory wants to divide the total number of Widget A produced into smaller batches. Each batch contains the same number of units, equal to the total number of Widget B produced.
**Questions:**
a) How many batches of Widget A can be made if each batch contains the same number of units as the total number of Widget B produced?
b) If the factory decides to keep one extra unit of Widget A aside after creating all the full batches, how many complete batches of Widget A can be produced with the remaining units?
---
### Solution:
a) To find out how many batches of Widget A can be produced from the total units of Widget B, you would divide the total number of units of Widget A by the number of units of Widget B:
\[
\text{Batches} = \frac{4.16643 \times 10^3}{3.99708 \times 10^3}
\]
Calculating the division:
\[
\text{Batches} = \frac{4166.43}{3997.08} \approx 1.0423 \text{ (approximately)}
\]
Since you can only have complete batches, the factory can make **1 complete batch** of Widget A.
b) To find the remaining units of Widget A after creating complete batches:
1. Calculate how many units are used for 1 complete batch (which is the total number of units of Widget B):
\(3,997.08\) units.
2. Subtract this from the total units of Widget A produced:
\[
\text{Remaining Units} = 4,166.43 - 3,997.08 = 169.35
\]
So, the factory has **169.35** units of Widget A left after making 1 complete batch. As you can't make another complete batch with fewer than \(3,997.08\) units, there will be no more complete batches possible given the leftover.
---
Let me know if you have further questions or need additional problems!
Answered by
GPT-4o mini
Absolutely! Here’s a more concise division word problem using the numbers \(4.16643 \times 10^3\) and \(3.99708 \times 10^3\):
---
**Word Problem:**
A bakery made **4,166.43** muffins (\(4.16643 \times 10^3\)) last month. If each box can hold **3,997.08** muffins (\(3.99708 \times 10^3\)), how many complete boxes can the bakery fill with the muffins?
---
### Solution:
To find out how many complete boxes can be filled, divide the total number of muffins by the number of muffins each box can hold:
\[
\text{Number of Boxes} = \frac{4,166.43}{3,997.08} \approx 1.0423
\]
Since the bakery can only fill **1 complete box**, there will be some muffins left over.
---
Feel free to ask if you need any more problems!
---
**Word Problem:**
A bakery made **4,166.43** muffins (\(4.16643 \times 10^3\)) last month. If each box can hold **3,997.08** muffins (\(3.99708 \times 10^3\)), how many complete boxes can the bakery fill with the muffins?
---
### Solution:
To find out how many complete boxes can be filled, divide the total number of muffins by the number of muffins each box can hold:
\[
\text{Number of Boxes} = \frac{4,166.43}{3,997.08} \approx 1.0423
\]
Since the bakery can only fill **1 complete box**, there will be some muffins left over.
---
Feel free to ask if you need any more problems!
Answered by
GPT-4o mini
Certainly! Here’s a division-focused word problem using the values \(4.16643 \times 10^3\) and \(3.99708 \times 10^3\):
---
**Word Problem:**
A farmer harvested **4,166.43** pounds of apples (\(4.16643 \times 10^3\)) last season. He wants to pack these apples into bags that each hold **3,997.08** pounds (\(3.99708 \times 10^3\)).
**Questions:**
a) How many complete bags can the farmer fill with the apples?
b) How many pounds of apples will be left over after filling the complete bags?
---
### Solution:
a) To find how many complete bags can be filled, divide the total pounds of apples by the weight each bag can hold:
\[
\text{Number of bags} = \frac{4,166.43}{3,997.08}
\]
Calculating that gives:
\[
\text{Number of bags} \approx 1.0423
\]
Since the farmer can only fill **1 complete bag**, he will fill 1 bag fully.
b) To find the weight of apples left over after filling the complete bags:
1. The weight of apples used for 1 complete bag is **3,997.08** pounds.
2. Subtract this from the total weight of apples:
\[
\text{Remaining apples} = 4,166.43 - 3,997.08 = 169.35 \text{ pounds}
\]
So, there will be **169.35 pounds** of apples left over after filling the complete bag.
---
Let me know if you need any more clarification or additional problems!
---
**Word Problem:**
A farmer harvested **4,166.43** pounds of apples (\(4.16643 \times 10^3\)) last season. He wants to pack these apples into bags that each hold **3,997.08** pounds (\(3.99708 \times 10^3\)).
**Questions:**
a) How many complete bags can the farmer fill with the apples?
b) How many pounds of apples will be left over after filling the complete bags?
---
### Solution:
a) To find how many complete bags can be filled, divide the total pounds of apples by the weight each bag can hold:
\[
\text{Number of bags} = \frac{4,166.43}{3,997.08}
\]
Calculating that gives:
\[
\text{Number of bags} \approx 1.0423
\]
Since the farmer can only fill **1 complete bag**, he will fill 1 bag fully.
b) To find the weight of apples left over after filling the complete bags:
1. The weight of apples used for 1 complete bag is **3,997.08** pounds.
2. Subtract this from the total weight of apples:
\[
\text{Remaining apples} = 4,166.43 - 3,997.08 = 169.35 \text{ pounds}
\]
So, there will be **169.35 pounds** of apples left over after filling the complete bag.
---
Let me know if you need any more clarification or additional problems!
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