No.
no,we can divide the figure into squares,rectangles and triangles
It is: (3x+4)(2x-3) when factored
There is a beautiful proof of Euler's Therom, using the area of the sphere and spherical geometry.
A therom in math is a law that has been proven by using other theroms or postulates. They are commonly found in Geometry and above.
it is related to math because the amount of map spaces is the amount you color using the therom you want to use.
Pythagoras' theorem states that for any right angle triangle the square of its hypotenuse is equal to the sum of its squared sides as in the following formula:- a squared + b squared = c squared whereas a and b are the sides of the triangle with c being its hypotenuse
no,we can divide the figure into squares,rectangles and triangles
It is: (3x+4)(2x-3) when factored
There is a beautiful proof of Euler's Therom, using the area of the sphere and spherical geometry.
A therom in math is a law that has been proven by using other theroms or postulates. They are commonly found in Geometry and above.
An expression that completely divides a given polynomial without leaving a remainder is called a factor of the polynomial. This means that when the polynomial is divided by the factor, the result is another polynomial with no remainder. Factors of a polynomial can be found by using methods such as long division, synthetic division, or factoring techniques like grouping, GCF (greatest common factor), or special patterns.
it is related to math because the amount of map spaces is the amount you color using the therom you want to use.
Factor as : (x+9)(x+10) using the first terms ( x terms) multiply to x2; the last terms multiply to 90; the sum of 9x + 10 x = 19x
Let's find out using the Euclidean method! Divide 35 by 14 and you get 2, remainder 7. Divide 14 (the divisor in the last division problem) by 7 (the last remainder) and you get 2, remainder 0. Because the remainder is zero, the last divisor, 7, is the GCF of 14 and 35. Check. Seven is definitely a factor of both, and if we were to try larger numbers, they would not work: 14 does go into 14, but not into 35; and no number larger than 14 goes into 14.The GCF is 7.
The highest common factor (HCF) of two numbers is the largest positive integer that divides both numbers without leaving a remainder. To find the HCF of 130 and 165, you can use the Euclidean algorithm, which involves dividing the larger number by the smaller number and then using the remainder as the new divisor. By repeating this process, you will find that the HCF of 130 and 165 is 5.
0
If you divide 3 into 565 you will have remainder 1