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Q: How do you find the divisor if you know the quotient is 41 and the dividend is 1681?

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If the divisor and the dividend are positive then the quotient will be positive too.

we can multiply the divisor & the quotient to find the dividend

The three parts to a division problem are: Dividend, Divisor, and Qoutient. To calculate the value of any of the terms, two of the terms need to be known values. To calculate the dividend, multiply the quotient by the divisor.

If there is no remainder, you can use the relation:dividend = divisor x quotient If you ONLY know the divisor, you don't have enough information; though you can make up any number for the quotient, and multiply them together to get the dividend.

Divide the divisor into the dividend which will result as a quotient and sometimes having a remainder

To find the mixed number you need to first divide to find the quotient and remainder. So 71 over 8 has a quotient of 8 and remainder 7. So the general way of writing a mixed number is dividend over divisor = quotient (remainder over divisor) dividend/divisor = quotient remainder/divisor) So 71 over 8 = 8 7/8.

quotent X divisor + remainder = dividend

I think that you are thinking of the quotient, which is the answer when you divide the two numbers, called the dividend and the divisor. Example: 6 divided by 3 equals 2. The dividend is 6. The divisor is 3. The quotient is 2. Think, how many 3's does it take to make a 6? The answer, called the quotient, is 2. It takes 2 3's to make a 6.

The remainder of two positive integers can be calculated by first dividing one number (the dividend) by the other (the divisor) using integer division (ignoring any fractional component). Multiply this quotient by the divisor, then subtract the product from the dividend. The result is the remainder. Alternatively, while the dividend remains greater than the divisor, subtract the divisor from the dividend and repeat until the dividend is smaller than the divisor. The dividend is then the remainder.

Multiply the reciprocal of the divisor by the dividend.

To estimate the quotient, we first round off the divisor and the dividend to the nearest tens, hundreds, or thousands and then divide the rounded numbers. In a division sum, when the divisor is made up of 2 digits or more than 2 digits, it helps if we first estimate the quotient and then try to find the actual number.

0.1667

The easiest way to find the greatest common denominator of two integers with a computer program is to use the Euclidean algorithm. Of the most popular methods of finding the GCD of two numbers, the Euclidean algorithm does it with the least amount of work and requires the least amount of code.In order to understand the Euclidean algorithm, you'll need to know a few division terms:The dividend is the number to be divided.The divisor is the number being divided by.The quotient is the number of times the divisor divides into the dividend.The remainder is the amount "left over" when the divisor cannot go into the dividend an integral number of times.18A divided by 12B gives a quotient of 1C and a remainder of 6D. A is the dividend, B is the divisor, C is the quotient, and D is the remainder.The Euclidean algorithm works like this:Check if either of the two integers is 0. If so, there is no solution (Ø), as a number cannot share a GCD with zero. Besides, division by zero is a big no-no.Check if either of the two integers is 1. If so, 1 is the GCD.Divide the larger of the two integers by the smaller.Divide the divisor of the previous division operation by the remainder of the previous operation.Repeat step four until the remainder equals zero. When the remainder equals zero, the divisor of the last operation is the GCD.If you still don't get it, try looking at the Euclidean algorithm in action:Find the GCD of 84 and 18.Check to see if either 84 or 18 is equal to 0. Nope. Continue on...Check to see if either 84 or 18 is equal to 1. Nope. Continue on...Since 84 is larger than 18, divide 84 by 18. Quotient is 4, remainder is 12.Take the divisor of the last operation (18) and divide it by the remainder of the last operation (12). Quotient is 1, remainder is 6.Take the divisor of the last operation (12) and divide it by the remainder of the last operation (6). Quotient is 2, remainder is 0.When the remainder is 0, the divisor of the last operation is the GCD. So the GCD in this case is 6.You should now have a good grasp of how the Euclidean algorithm works. Now we need to turn it into code. We'll need three variables, all of them integers:int divisor, dividend, remainder;The purpose of the variables is self-explanatory. Next, we need to make a few decisions. We need to decide if the dividend or the divisor is 0. If that test is passed, then we need to decide if the dividend or the divisor is 1. If that test is passed, then we need make sure that dividend is larger than divisor.if(dividend 1) {printf("The GCD is 1.\n");}// Make sure the dividend is greater than the divisor.if(divisor > dividend) {remainder = dividend;dividend = divisor;divisor = remainder;}// Calculate the GCD.while(remainder != 0) {remainder = dividend % divisor;dividend = divisor;divisor = remainder;}// Display the answer to the user.printf("The GCD is %i.\n", dividend);}And the GCD lived happily ever after. The end.

To find the number, multiply the divisor and quotient, then add the remainder. 9 (divisor) times 6 is 54. 54 plus 7 is 61. The number is 61.

you can use multiplication facts to find division facts by dividing your divisor and your quotient to find your answer.

There are two main methods:Euclid's methodChoose one of the numbers to be the dividend of a division and the other to be the divisor.Perform the divisionIgnore the quotient and keep the remainderIf the remainder is zero, the last divisor is the GCDReplace the dividend by the divisorReplace the divisor by the last remainderRepeat from step 2.It doesn't matter which number is the dividend and which is the divisor of the first division, but if the larger is chosen as the divisor, the first run through the steps above will swap the two over so that the larger becomes the dividend and the smaller the divisor - it is better to choose the larger as the dividend in the first place. Prime factorisationExpress the numbers in their prime factorisations in power format. Multiply the common primes to their lowest power together to get the GCD.The first is limited to two numbers, but the latter can be used to find the gcd of any number of numbers.Examples:GCD of 500 and 240:Euclid's method:500 ÷ 240 = 2 r 20 240 ÷ 20 = 6 r 0gcd = 20Prime factorisation:500 = 22 x 53 240 = 24 x 3 x 5gcd = 22 x 5 = 20

The 'division' operation ... the one that produces a 'quotient' ... is an operation that's carried out with two numbers. The twentieth composite number is 30 . With one more number, and your instructions designating which one is the divisor, I'll find the quotient for you.

By (long) division:. . . . . . . . . . .2x2 - 7x . + 2. . . . . ----------------------x + 2 | 2x3 - 3x2 - 12x + 4. . . . . .2x3 + 4x2. . . . . .-----------. . . . . . . . . - 7x2 - 12x. . . . . . . . . - 7x2 - 14x. . . . . . . . . ------------. . . . . . . . . . . . . . . . 2x + 4. . . . . . . . . . . . . . . . 2x + 4. . . . . . . . . . . . . . . . -------. . . . . . . . . . . . . . . . . . . . .0. . . . . . . . . . . . . . . . ====(the "dot-spaces" are used to hold the characters in the right place of the division - they should be treated as blank)Thus since(x + 2)(2x2 - 7x + 2) = 2x3 - 3x2 - 12x + 4(x + 2) is a factor of 2x3 - 3x2 - 12x + 4In the division:the first term of the divisor (x) is compared with the highest power of x remaining in the dividend to find the next term of the quotient;the whole divisor is multiplied by this;then subtracted from the dividend;Steps 1-3 are repeated until there is no first term of the divisor (x) in the dividend.If the dividend is '0' (ie the last multiplication resulted in what was remaining in the dividend) then the divisor is a factor of the original dividend); otherwise it is not a factor.

Modulo Method First need to divide the Dividend by the Divisor: 111 7 = 15.86 Next we take the Whole part of the Quotient (15) and multiply that by the Divisor (7): 15 x 7 = 105 And finally, we take the answer in the second step and subtract it from the Dividend to get the answer to 111 mod 7: 111 - 105 = 6 As you can see, the answer to 111 mod 7 is 6. Modulus Method The modulus method requires us to first find out what the highest common multiple of the Divisor (7) is that is equal to or less than the Dividend (111). We can see that multiples of 7 are 0, 7, 14, 21, etc. The highest multiple that is less than or equal to 111 is 105. So the final step in the modulus method here is to subtract the divisor highest multiple from the Dividend and answer the question "what is 111 modulus 7?": 111 - 105 = 6 As we can see, this is the same answer as the modulo method and the answer is 6

They found Pennsylvania 1681

Yes, it can. You would find the divisor in the left-most column and then follow that row over to the dividend. Once you find the dividend, you can trace that colummn up to find out the quotient. For example: In the problem 72 divided by 9 equals what, you would find the 9 in the left column and trace 9's row over to 72. Then you follow the column that you find the 72 in up to find the answer, which will be 8. You can also find the answer the other way. Look for the 9 in the top row and trace its column down to the 72. Once you've found the 72, trace its row to the left-most column to find the answer.

Why not use the Euclidean Algorithm and find out? Divide 63 by 25, and you get a remainder of 13. (The quotient is not important.) Now the divisor of the last division problem becomes the dividend, and the remainder becomes the divisor - that is, we divide 25 by 13 this time. We get a remainder of 12. Divide 13 by 12, and you get a remainder of 1. Divide 12 by 1, you get no remainder. Therefore, this last divisor, 1, is the greatest common factor (or divisor) of the original two numbers. (As a side note, because the gcf is 1, that means those two numbers are what's called relatively prime.)

The divisor in this division problem is 26.

100 divided by 4 is 25.

any number is divisible by any other number, only sometimes, in cases like this, it is more difficult to find a divisor to make the quotient a whole number.