A modem, short for modulator/ demodulator, "packages" data that is being transmitted so it fits whichever transfer protocol it's working with. That includes chopping up the data to the proper packet sizes, adding error-checking bits and addressing info, etc. It also does the opposite with received data, "unpacking" it so your computer can work with it.
That depends what you mean by "B", and what you mean by "binary code" assuming that by "binary code", you actually mean a binary representation of it's ascii value, then the answer is 1000010. The ascii value of the character "B" is 66 in decimal, which is 1000010 is that value in binary. If on the other hand, you mean "what is the binary value of the hexidecimal number B?", then the answer is 1011.
0110 0001 bin -> 61 Ascii -> a
In binary: 10100010 11101010 11010010 11011100 11011100 00000000 In hexadecimal: 0x5175696E6E00 10100010 = 0x51 = 'Q' (ASCII character code 81 decimal) 11101010 = 0x75 = 'u' (ASCII character code 117 decimal) 11010010 = 0x69 = 'i' (ASCII character code 105 decimal) 11011100 = 0x6E = 'n' (ASCII character code 110 decimal) 11011100 = 0x6E = 'n' (ASCII character code 110 decimal) 11011100 = 0x00 = 0 (ASCII character code 0 decimal - null-terminator)
BCD codes,gray code,error detecting code,ASCII character code,Excess 3 code
ASCII (American Standard Code for Information Interchange)
look up www.shake yourself.org.com
ASCII refers to the characterset. So the ASCII code of 'd' is 'd' If you meant binary code it is: 01100100
You can are ASCII-tabellen. For converting binary to text
Upper case U in ASCII/Unicode is binary 0101011, U is code number 85. Lower case u in ASCII/Unicode is binary 01110101, u is code number 117.
In binary code, the word "no" can be represented using ASCII values. The letter "n" corresponds to the ASCII value 110, which is 01101110 in binary, and the letter "o" corresponds to 111, which is 01101111 in binary. Therefore, "no" in binary code is 01101110 01101111.
In binary, "db" would be represented as "01100100" when converted from ASCII to binary. Each character is assigned a unique binary code according to the ASCII standard.
The phrase "I hate you" can be converted to binary code by first translating each character into its ASCII equivalent and then representing those ASCII values in binary. For example, "I" is 73 in ASCII, which is 01001001 in binary. Following this method, "I hate you" in binary is: 01001001 00100000 01101000 01100001 01110100 01100101 00100000 01111001 01101111 01110101.
Lower case 'x' is 120 (decimal) or 1111000 (binary) in the ASCII character table.
That depends what you mean by "B", and what you mean by "binary code" assuming that by "binary code", you actually mean a binary representation of it's ascii value, then the answer is 1000010. The ascii value of the character "B" is 66 in decimal, which is 1000010 is that value in binary. If on the other hand, you mean "what is the binary value of the hexidecimal number B?", then the answer is 1011.
0110 0001 bin -> 61 Ascii -> a
To represent the name "Sam" in binary code, you need to convert each letter to its ASCII value and then to binary. The ASCII values for 'S', 'a', and 'm' are 83, 97, and 109, respectively. In binary, these values are represented as: 'S' = 01010011, 'a' = 01100001, and 'm' = 01101101. Therefore, "Sam" in binary code is 01010011 01100001 01101101.
The binary code 00110011 represents the decimal number 51 in the ASCII character encoding system. In ASCII, the number 51 corresponds to the character '3'. Thus, 00110011 can be interpreted as the character '3' when translated from binary to text.