As described in [21, 22], the correntropy can be treated as a generalized correlation function characterized by the kernel bandwidth, which controls the observation window and provides an effective mechanism to eliminate the detrimental effect of outliers.
However, the dynamic response of the loop filter is still dominated by the linear system and characterized by the order and the bandwidth.
For the sake of simplicity, it is assumed that each channel is characterized by the same attributes such as bandwidth, bit error rate, and so on.
The transfer function is in brief characterized by the input detection amplitude (or bandwidth) and by the output amplitude (ratio between the maximal and basal output concentrations).
In the noiseless case, the detection performance of the CR node is characterized by the SoS of the PU, the bandwidth of the PU, and the total time for the CR node to scan the entire bandwidth.
The frequency response is typically characterized by the amplitude and the phase of the system response, which can be measured by sweeping sinusoidal waves through the bandwidth of interest.
These communication technologies assume variable delays and bandwidth constraints characterized by a non-transmission control protocol/internet protocol architecture but interacting with it at the edge of the network.
Such a performance is achieved by transforming the signal at the analog front-end in order to produce two or more instances characterized by reduced bandwidth; the different instances are acquired by means of less demanding ADCs and combined to regain a digital representation of the input signal over the original bandwidth.
In this previous study, we used a bi-square kernel and the distance function, which is characterized by a bandwidth that corresponds to the distance beyond which the weight rapidly approaches zero.
Large magnitude of the AC harmonic load is observed to give rise to dynamic pull-in bandwidth in the frequency response characterized by large and uncontrollable vibrations of the microbeam.
