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 for the word "hell" can be represented using ASCII values. Each character corresponds to an 8-bit binary number: 'h' is 01101000, 'e' is 01100101, 'l' is 01101100, and the second 'l' is again 01101100. Therefore, the complete binary representation of "hell" is 01101000 01100101 01101100 01101100.
With 6 binary digits, you have 26 different possibilities. This is because there are two possibilities for each digit, and each digit is independent of the other digits - so you just multiply the possibilities for each digit together.
The binary code for the word "GOODBYE" can be represented using ASCII values. Each letter is converted to its 8-bit binary equivalent: G (01000111), O (01001111), O (01001111), D (01000100), B (01000010), Y (01011001), E (01000101). Therefore, "GOODBYE" in binary is: 01000111 01001111 01001111 01000100 01000010 01011001 01000101.
0111 0110
64 or 123
4 these are 00,01,10 and 11...
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...
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.
First lets start with some basic concepts. We normall use base 10 (0 through 9); Binary or Base 2 uses 1's and 0's. In base 10 the place values are based on 10 ( ie 14 means one set of 10 + 4); in binary the place values are based on 2. 2 would be represented as 10 in binary, 4 would be represented as 100 in binary, 5 would be represented as 101 in binary. Applying this to 14 results in one set of 8 + one set of 4 plus one set of 2, which gives us 1110 which is 14 in binary.
BPSK (Binary Phase Shift Keying) modulates the phase of the carrier wave to represent binary data symbols, while QPSK (Quadrature Phase Shift Keying) uses four phase shifts to represent two bits at a time. QPSK transmits data at a higher rate compared to BPSK but requires a more complex receiver to demodulate the signal.
The values of amplitude modulation index is categorized as an objective type.
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.
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.
The binary code for the word "hell" can be represented using ASCII values. Each character corresponds to an 8-bit binary number: 'h' is 01101000, 'e' is 01100101, 'l' is 01101100, and the second 'l' is again 01101100. Therefore, the complete binary representation of "hell" is 01101000 01100101 01101100 01101100.
The binary values is 10110101.
Because a 2-digit hex number can represent up to 256 values (including zero) - whereas the binary equivalent would require 8 binary digits (bits).. This saves space on paper.