- thousand
- million
- billion
- trillion
- quadrillion
- quintillion
- sextillion
- septillion
- octillion
- nonillion
- decillion
etcetera.
See here for more: https://secure.wikimedia.org/wikipedia/en/wiki/Names_of_large_numbers
10000001
10000001
You could write it as 103, or as 1003/2 or as 10001 or as 10000001/2 or as 10log(1000) or in any of an infinity of different ways like that.
For unsigned maximum negative is 0.For signed maximum negative is -128.The answer depends on how a negative number is represented in binary. Different computers can do this differently. It also affects the maximum value of positive numbers.An 8 bit number can have 256 combinations of 0's and 1's so it can represent 256 different values. We have different conventions for interpreting them. These conventions are built into the hardware and software of the machine.Without recognizing negative numbers, the 256 values represent the number 0-255.If we use signed magnitude representation, a single bit is used to determine if the number is positive or negative. The other 7 bits represent the value. 7 bits represent 127 values and a signed magnitude can have the values 0-127 as well as negative 0 to negative 127. Note that you can have both +0 and -0.0 (00000000) becomes -0 (10000000),5 (00000101) becomes -5 (10000101).The largest negative number here is -127.In 1's complement notation a number is reversed by flipping all the bits of the positive number.0 (00000000) becomes -0 (11111111),5 (00000101) becomes -5 (11111010).Again we get both 0 and -0. The largest negative number here is -127The most commonly use method in use on machines today is called 2's complement. A number is reversed by flipping all the bits and adding one: as follows:1 (00000001) -> 11111110 +1 = 11111111 = -1-1 (11111111) -> 00000000 +1 = 00000001 = 15 (00000101) -> 11111010 +1 = 11111011 = -5126 (01111110) -> 10000001 +1 = 10000010 = -126127 (01111111) -> 10000000 +1 = 10000001 = -127-127 (10000001) -> 01111110 +1 = 01111111 = 127-128 (10000000) -> 01111111 +1 = 10000000 = -128 (there is no positive equivalent here of 128)0 (00000000) -> 11111111 +1 = 1 00000000 = -1 (the one that is carried at the end does not fit into the 8 bit number and is lost. This is called overflow and is not regarded as an error.2's complement arithmetic has a range of positive number 0-127 an negative 1 to negative 128. We use 10000000 as -128 because the top bit position, the 1, is already common for all the negative values. If it were a 9 bit value (01000000) it would be positive 128. It all works out great internally for the computer math processor. The largest negative number here is -128
10000001
129 = 10000001
10000001
10000001
10000001 times
The binary representation of the keyword "129" in decimal is 10000001.
1------------10000001 100
10000001 tonne = 1000,000 grammes - really check google!
10000000 10000001 10000010 10000011 10000100 10000101 10000110 10000111 10001000 10001001
You could write it as 103, or as 1003/2 or as 10001 or as 10000001/2 or as 10log(1000) or in any of an infinity of different ways like that.
10000001 00111011 10000001 10111110 There's a chart for this: 1 2 3 4 5 6 7 8 128 64 32 16 8 4 2 1 Start from the left and add a one for the numbers you need to equal whatever you need. For example, 192 is 11000000 (128 + 64 = 192), while 2 would be 00000010, and 255 would be 11111111.
The binary number 10000001 represents the value of 129 in base 10. This is calculated by taking each digit of the binary number, multiplying it by 2 raised to the power of its position (from right to left, starting at 0). Specifically, (1 \times 2^7 + 0 \times 2^6 + 0 \times 2^5 + 0 \times 2^4 + 0 \times 2^3 + 0 \times 2^2 + 0 \times 2^1 + 1 \times 2^0 = 128 + 1 = 129).