The number of arrays you can make with the number 16 depends on how you define "arrays." If you're referring to the factors of 16, they are 1, 2, 4, 8, and 16, which can form rectangular arrays of various dimensions (e.g., 1x16, 2x8, 4x4). In terms of combinations or arrangements of the number 16 in an array (like in permutations), the possibilities would be significantly greater, depending on the context and constraints you apply.
16
The number 18 can be represented as a sum of arrays in multiple ways, depending on the constraints such as the number of elements in the array or the range of numbers allowed. For example, if considering positive integers, one can break it down into parts like (1, 17), (2, 16), and so on, including combinations like (9, 9), which ultimately leads to a combinatorial problem. In total, there are 54 different combinations of positive integers that sum to 18 when including permutations. The exact count can vary with the specific rules applied.
16 number it have
25 - 9 = 16
Rectangular arrays for 64 can be formed by finding pairs of factors that multiply to 64. The factor pairs are: (1, 64), (2, 32), (4, 16), (8, 8). These pairs represent the dimensions of the rectangular arrays, such as a 1x64 array, a 2x32 array, a 4x16 array, and a 8x8 array.
3 or 7 - depending on whether you count a transposed array as different. 1*64 2*32 4*16 8*8
16
If you mean how do you create an array with 16 elements, there are two ways: int a[16]; /* fixed size array of 16 integer elements */ int* b = malloc(16*sizeof(int)); /* variable length array with (initially) 16 integer elements */ Remember that variable length arrays allocated on the heap must be released as soon as they are no longer required: free (b); b=NULL;
The question does not make sense. 21/16 is one number: there is no second number in which it needs to go.
1, 4, 9, 16
The number 18 can be represented as a sum of arrays in multiple ways, depending on the constraints such as the number of elements in the array or the range of numbers allowed. For example, if considering positive integers, one can break it down into parts like (1, 17), (2, 16), and so on, including combinations like (9, 9), which ultimately leads to a combinatorial problem. In total, there are 54 different combinations of positive integers that sum to 18 when including permutations. The exact count can vary with the specific rules applied.
16 number it have
Small words make a difference. No prime number "has" a factor of 16. But 2 is the only prime number that "is" a factor of 16.
25 - 9 = 16
1 byte for 1 index item in 16-bit operating system
16
16 x 16