A nybble consists of 4 bits, which can represent values from 0000 to 1111 in binary. The maximum decimal value of a nybble is therefore 1111 in binary, which equals 15 in decimal.
The maximum value of a binary number with 4 bits is represented by the binary sequence 1111. In decimal, this equates to ( 2^3 + 2^2 + 2^1 + 2^0 ), which equals 15. Thus, the maximum value of a 4-bit binary number is 15.
Digital states? Each one can be on or off (00000 to 11111)5 digital states,number of states = 25highest decimal value (since we use "0" as a valid state) = 25 - 1.Over to you.
Half of the address 0xFFFFFFFF (which is the maximum value for a 32-bit unsigned integer) is 0x7FFFFFFF. This value represents the midpoint in the range of 32-bit addresses, effectively dividing the maximum address space in half. In decimal, 0x7FFFFFFF equals 2,147,483,647.
decimal value of 115.9 percent is 1.159.
It would be the value of the decimal increased by 30%.
What is maximum value
2056 1024 bytes = 1 Kilobyte therefore 1024x5= 5 Kilobytes thus 1024X5= 5120 divided by 2= 2560 Remember that a nybble is half of a bite a "nybble" is half a byte, you divive
Digital states? Each one can be on or off (00000 to 11111)5 digital states,number of states = 25highest decimal value (since we use "0" as a valid state) = 25 - 1.Over to you.
Half of the address 0xFFFFFFFF (which is the maximum value for a 32-bit unsigned integer) is 0x7FFFFFFF. This value represents the midpoint in the range of 32-bit addresses, effectively dividing the maximum address space in half. In decimal, 0x7FFFFFFF equals 2,147,483,647.
the place value after a decimal point is tenths
decimal value for 0.0658 = ten thousandths
It would be the value of the decimal increased by 30%.
decimal value of 115.9 percent is 1.159.
35 IS a decimal. And the value of 35 c, as a decimal, depends on the value of c.
15
Yes. We could use decimal notation but hexadecimal is more convenient because it requires fewer digits and more closely reflects the way the machine addresses memory using its native binary notation. For instance, a 64-bit address in decimal requires 20 decimal digits (including leading zeroes) but only 16 hexadecimal digits. Moreover, the hexadecimal value can be easily translated into the actual binary value used by the machine because each hex digit maps 1:1 with every nybble of the binary value. A nybble is half-a-byte (4-bits). Since each address typically represents an 8-bit byte, the value of that byte can also be expressed using just 2 hexadecimal digits (00 to FF) whereas decimal notation would require 3 digits (000 to 255). If we used decimal notation to present the contents of a block of memory, then we wouldn't be able to fit as many columns of data on the screen at once. More importantly, when we look at the contents of memory we're generally more interested in what the computer sees, and hexadecimal notation more closely reflects what the computer sees.
The decimal value of 21 is simply 21. In decimal form, whole numbers remain the same, so the decimal value of 21 is 21.