In the table p and q are in inverse proportion. Complete the table. | p | 2 | 10 | | 35 | |----|----|----|----|----| | q | 17.5 | | 2.5 | 1.4 | 0.5 |
How to Complete the Table When ( p ) and ( q ) Are Inversely Proportional
Answer:
When two variables ( p ) and ( q ) are in inverse proportion, it implies that their product remains constant. Thus, if there is a constant ( k ) such that:
You can use this relationship to find missing values in a table where ( p ) and ( q ) are inversely proportional.
Let’s fill in the missing values in the provided table assuming ( p \times q = k ).
Given Data:
- ( p = 2 ), ( q = 17.5 )
- ( p = 10 )
- ( p ) unknown, ( q = 2.5 )
- ( p = 35 ), ( q = 1.4 )
- ( p ) unknown, ( q = 0.5 )
Calculating the Constant ( k ):
Start with the pair ( (p = 2, q = 17.5) ):
Now let’s verify with ( (p = 35, q = 1.4) ):
There seems to be an inconsistency here; calculate again assuming ( 1.4 ) is incorrect.
Suppose ( k ) found with ( p = 2 ) and ( q = 17.5 ) is accurate, we can fix this by assuming that the setup was wrong. We might explore:
- Another combination, like ( \frac{k}{p} = q ) or re-evaluate specific calculations.
For now, rely on initial found ( k = 35 ).
Completing the Table:
Fill for ( p = 10 ):
Using ( p \times q = 35 ),
Fill for ( p ) when ( q = 2.5 ):
Fill for ( p ) when ( q = 1.4 ):
Fill for ( p ) when ( q = 0.5 ):
Completed Table:
( p ) | 2 | 10 | 14 | 25 | 70 |
---|---|---|---|---|---|
( q ) | 17.5 | 3.5 | 2.5 | 1.4 | 0.5 |
This satisfies the inverse proportion relation because every ( p \times q ) equals 35.
If you have further queries or uncertainty, please don’t hesitate to ask! @anonymous10