-15 is 11111111
and 2s com is 1111 0001
The binary equivalent of the decimal number (15)₁₀ is (1111)₂. This is obtained by converting 15 into binary, which involves dividing the number by 2 and recording the remainders. In this case, 15 divided by 2 gives a quotient of 7 and a remainder of 1, continuing this process leads to the binary representation. Thus, (15)₁₀ equals (1111)₂.
111111 in binary is 255 in decimal which is FF in hexadecimal (i.e. 15 units and 15 16s)
9: 1001 10: 1010 11: 1011 12: 1100 13: 1101 14: 1110 15: 1111 16: 10000
With 5 bits, you can represent (2^5) different numbers, which equals 32. This includes numbers ranging from 0 to 31 in unsigned binary representation. If using signed binary representation (like two's complement), the range would be from -16 to 15, still allowing for 32 distinct values.
15 = 1111
15
15
The binary equivalent of the decimal number (15)₁₀ is (1111)₂. This is obtained by converting 15 into binary, which involves dividing the number by 2 and recording the remainders. In this case, 15 divided by 2 gives a quotient of 7 and a remainder of 1, continuing this process leads to the binary representation. Thus, (15)₁₀ equals (1111)₂.
111111 in binary is 255 in decimal which is FF in hexadecimal (i.e. 15 units and 15 16s)
1 1 1 1
I want answer bcd This in (a) 12 b() 13 (c)14 (d)15
9: 1001 10: 1010 11: 1011 12: 1100 13: 1101 14: 1110 15: 1111 16: 10000
A 5-bit binary counter, interpreted as an unsigned integer, has a range of 0 to 31. Interpreted as a two's complement signed integer, it has a range of -16 to +15.
With 5 bits, you can represent (2^5) different numbers, which equals 32. This includes numbers ranging from 0 to 31 in unsigned binary representation. If using signed binary representation (like two's complement), the range would be from -16 to 15, still allowing for 32 distinct values.
17
The binary number 1111 = 15
15 = 1111