Two: '0' or '1'
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Well, honey, in an 8-bit register, you can store a total of 256 different binary values. That's because each bit can be either a 0 or a 1, giving you 2 options per bit. And when you have 8 bits, you just multiply 2 by itself 8 times to get 256. Math doesn't lie, darling.
Way to many (:
For signed 32 bit values: 2^31-1 = 0x7FFFFFFF = 2,147,483,647 For unsigned 32 bit values: 2^32-5 = 0xFFFFFFFB = 4,294,967,291
Well, isn't the hexadecimal number system just a lovely way to represent numbers? The advantage is that it can represent a large range of values using fewer digits, which can make it easier for us to work with in computing. On the other hand, some may find it a bit more complex to understand compared to our familiar decimal system. Just remember, there are always different ways to express beauty in numbers!
Infinitely many. If you take a ball of dough, for example, and gently push a bit in, you will have a different shape. Do it again, another shape. And so on.Infinitely many. If you take a ball of dough, for example, and gently push a bit in, you will have a different shape. Do it again, another shape. And so on.Infinitely many. If you take a ball of dough, for example, and gently push a bit in, you will have a different shape. Do it again, another shape. And so on.Infinitely many. If you take a ball of dough, for example, and gently push a bit in, you will have a different shape. Do it again, another shape. And so on.
A 128-bit register can store 2 128th (over 3.40 × 10 38th) different values. The range of integer values that can be stored in 128 bits depends on the integer representation used.
A 4-bit sound allows for 2^4 = 16 levels of amplitude. This means that the sound can represent 16 different discrete values of amplitude.
1. A single bit can represent two different values, 0 and 1. Then simply take the largest of those two possible values, 1, and that's your answer.
0 o 1
210 = 1024, so there are 1024 different bit configurations in a 10-bit code.
4, which is equal to 2 to the power 2.In general, with "n" bits, you can have "2 to the power n" different states (or represent that many different numbers).
4.1 bit for 2,2 bits for 4,3 bits for 8,4 bits for 16.
Neither of the following are true about 1 bit, it can not represent decimal values 0 and 9 nor can it be used to represent one character in the lowercase English alphabet and one binary digit four binary. A true statement would be that 1 bit is represented by the decimal values 0 or 1.
24, or 16 (0 through 15) One binary digit (bit) can have 21 values (0 or 1). Two bits can have 22 values. Three bits can have 23 values. A five-bit number can have 25 values... and so on...
With 4 bits, you can represent 2^4 or 16 different numbers. This is because each bit can have 2 possible values (0 or 1), so with 4 bits you have 2 x 2 x 2 x 2 = 16 possible combinations. These numbers range from 0 to 15 in decimal representation.
We need signed integers in order to represent both negative and positive values. However, some numbers can never be negative. For instance, the size of a file must always be greater than or equal to zero so we use unsigned integers to represent file sizes. Also, natural numbers must be greater than 0 so there's no point in using a signed value to represent a natural number. Signed integers also use one bit to denote the sign, but unsigned integers do not thus unsigned integers can effectively represent twice the range of positive values than an unsigned integer can. For instance, an 8-bit signed value can represent values in the range -128 to +127 using twos complement notation, but an 8-bit signed value can represent values in the range 0 to 255.
The 8-bit integer limit is 28, which is 256. This means that an 8-bit integer can represent values from 0 to 255. This limit impacts data representation in computer systems by restricting the range of values that can be stored in an 8-bit integer, which can affect calculations and storage of data.