Larger bit rates can be achieved with uncoded transmissions.
For α > 0 there is a larger probability for lower bit rates, α = 0 results in a uniform distribution and α < 0 implies a preference for larger bit rates.
Note that a video bitstream may exhibit large bit rate variations due to intra-coded frames.
The side length r of the cell, which is also the largest possible distance between a user and a base station (i.e. when the user is at the geometric centre between three base stations) is defined by range corresponding to the largest bit rate for which we want to provide coverage.
While we have not applied actual entropy coding, it is well known that the loss of the entropy coder diminishes at moderate to large bit rates.
In this article, we will demonstrate the introduction of sleep modes is essential if we want to deploy mobile access networks with a high coverage for large bit rates.
Besides, if at the encoder side, a large bit-rate is spent to code a particular block, it is likely to be because no good match in the reference frames was found.
For a system with a larger total delay budget C, or a larger channel bit rate R B, because of the additional resources, both a larger S and a larger N 1 are preferable, and our results indicate that the corresponding ratio of the interleaver delay to the total delay budget becomes smaller.
Third, either fast fading, or a larger total delay budget C, or a larger channel bit rate R B, improves the system performance on the average, holding other parameters the same.
We also showed that either a larger total delay budget C, or a larger channel bit rate R B, or fast fading (i.e., a smaller N coh), improves the system performance on the average, holding other parameters the same.
