To increase the bandwidth of the channel

To reduce the transmission power

To improve the reliability of data transmission

To reduce the latency of data transmission

Block coding

Convolutional coding

Turbo coding

Linear coding

The number of bits that are different between the two codewords

The number of bits that are the same between the two codewords

The number of bits that are in error between the two codewords

The number of bits that are not in error between the two codewords

The smallest Hamming distance between any two codewords in the code

The largest Hamming distance between any two codewords in the code

The average Hamming distance between all pairs of codewords in the code

The sum of the Hamming distances between all pairs of codewords in the code

The larger the minimum Hamming distance, the more errors the code can correct

The smaller the minimum Hamming distance, the more errors the code can correct

The minimum Hamming distance has no effect on the error-correcting capability of the code

The error-correcting capability of the code is independent of the minimum Hamming distance

The ratio of the number of information bits to the number of code bits

The ratio of the number of code bits to the number of information bits

The number of information bits in the code

The number of code bits in the code

The higher the rate, the better the error-correcting capability

The lower the rate, the better the error-correcting capability

The rate has no effect on the error-correcting capability

The error-correcting capability is independent of the rate

The maximum rate at which data can be transmitted over a channel with a given bandwidth and noise level

The minimum rate at which data can be transmitted over a channel with a given bandwidth and noise level

The maximum rate at which data can be transmitted over a channel with a given bandwidth and no noise

The minimum rate at which data can be transmitted over a channel with a given bandwidth and no noise

The maximum rate at which data can be transmitted over the channel with zero error probability

The minimum rate at which data can be transmitted over the channel with zero error probability

The maximum rate at which data can be transmitted over the channel with a given error probability

The minimum rate at which data can be transmitted over the channel with a given error probability

The capacity of a channel is always equal to the Shannon limit

The capacity of a channel is always less than the Shannon limit

The capacity of a channel is always greater than the Shannon limit

The capacity of a channel is independent of the Shannon limit

The maximum rate at which data can be transmitted over a channel without intersymbol interference

The minimum rate at which data can be transmitted over a channel without intersymbol interference

The maximum rate at which data can be transmitted over a channel with a given bandwidth

The minimum rate at which data can be transmitted over a channel with a given bandwidth

The Nyquist rate is equal to twice the bandwidth of the channel

The Nyquist rate is equal to half the bandwidth of the channel

The Nyquist rate is equal to the bandwidth of the channel

The Nyquist rate is independent of the bandwidth of the channel

A theorem that states that a continuous-time signal can be perfectly reconstructed from its samples if the sampling rate is at least twice the highest frequency component of the signal

A theorem that states that a continuous-time signal can be perfectly reconstructed from its samples if the sampling rate is less than twice the highest frequency component of the signal

A theorem that states that a continuous-time signal can be perfectly reconstructed from its samples if the sampling rate is equal to twice the highest frequency component of the signal

A theorem that states that a continuous-time signal can be perfectly reconstructed from its samples if the sampling rate is greater than twice the highest frequency component of the signal

The Nyquist rate is the minimum sampling rate that satisfies the sampling theorem

The Nyquist rate is the maximum sampling rate that satisfies the sampling theorem

The Nyquist rate is the sampling rate that is equal to the highest frequency component of the signal

The Nyquist rate is the sampling rate that is twice the highest frequency component of the signal

Block codes operate on fixed-length blocks of data, while convolutional codes operate on a continuous stream of data

Block codes operate on a continuous stream of data, while convolutional codes operate on fixed-length blocks of data

Block codes are always linear, while convolutional codes are always nonlinear

Convolutional codes are always linear, while block codes are always nonlinear