The question asks for the smallest number that needs to be subtracted from 2001 so that the resulting number is perfectly divisible by 17. To find this, we need to determine the remainder when 2001 is divided by 17.
We perform the division of 2001 by 17:
$$ 2001 \div 17 $$
Let's break down the division process:
So, the division can be represented as:
$$ 2001 = (17 \times 117) + 12 $$
The quotient is 117, and the remainder is 12.
The remainder (12) is the amount by which 2001 exceeds the nearest multiple of 17 (which is $17 \times 117 = 1989$). Therefore, to get a number exactly divisible by 17, we must subtract this remainder from the original number.
The least number to be subtracted is the remainder, which is 12.
$$ 2001 - 12 = 1989 $$
Checking the result:
$$ 1989 \div 17 = 117 $$
Since 1989 is perfectly divisible by 17, subtracting 12 is the correct operation.
The least number that must be subtracted from 2001 to obtain a number exactly divisible by 17 is 12.
The options provided were:
Our calculation shows that the remainder is 12, which is the number that needs to be subtracted. Therefore, option 1 (12) is the correct answer.
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Which of the following is/are correct?
1. S is always divisible by 74.
2. S is always divisible by 9.
select the correct answer using the code given below: