Wu, C-W., Chua, L.O. "On a conjecture regarding the synchronization in an array of linearly coupled dynamical systems," IEEE Transactions on Circuits & Systems I-Fundamental Theory & Applications, vol.43, no.2, pp.161-165.
A well-known issue in functional neuroimaging studies, regarding motor synchronization, is to design suitable control tasks able to discriminate between the brain structures involved in primary time-keeper functions and those related to other processes such as attentional effort.
This study reveals an important shortcoming of the SES process, in particular, regarding its synchronization method.
In the simulation part, first, the results regarding chaos control and synchronization are given to show that the proposed strategy can control the states of the uncertain chaotic systems to desired states with fast speed.
An adequate cable length ensured the correct synchronization delay regarding our system.
Because of the constraints regarding oscillatory activity and synchronization of pairs of cells whose activity has to be recorded simultaneously, we could not pool data across different sessions and animals as was the case in other studies (Mitchell et al. 2007).
This paper regards the outer synchronization between two delay-coupled complex dynamical networks with nonidentical topological structures and a noise perturbation.
The allocation of functions between the RU and CU, i.e., the functional split, has a major impact on the transport network and the corresponding NGFI requirements regarding data rate, latency, and synchronization.
Several hypotheses have been formulated regarding these findings: the increased synchronization in the theta band may reflect a compensatory mechanism, but it may also be a display of synchronization disinhibition as a consequence of brain disease.
With regard to synchronization, switching delay effects are expected to be negligible as the selected devices perform switching in approximately 1 time-domain sample for the LTE system where, given a maximum number of subcarriers of 2048 with 15 kHz separation, the sampling time is T s = 1 / (15 · 103 × 2048 s ≈ 32.5 ns.
This requires taking care of the special needs of W7-X regarding continuously acquired data, segment based parameter switching and synchronization of data from different diagnostics.
