Why are BZ reactions widely studied in terms of synchronization phenomena?
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Belousov-Zhabotinsky (BZ) reactions are extensively studied for synchronization due to their ability to exhibit spontaneous synchronization phenomena in various setups. The complex coupling factors within the BZ reaction system play a crucial role in inducing oscillations and synchrony, leading to the loss of stability in the system and the emergence of dissipative structures . In composite BZ gels, chemical-mechanical feedback mechanisms allow for the development of synchrony and other dynamic behaviors, providing insights into synchronization patterns in multinode systems . Additionally, noise-induced synchronization in BZ reactions has been observed, where the synchronization rate depends on the distance between chemical oscillators and the intensity of noise, showcasing stochastic synchronization dynamics in spatially discrete distribution systems . These diverse synchronization behaviors make BZ reactions a valuable model for studying synchronization phenomena in chemical systems.
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15 Citations | BZ reactions are studied for synchronization due to noise-induced synchronization in spatially discrete systems, showing maximum synchronization at an optimal noise intensity in coupled lattice oscillators. |
| BZ reactions are extensively studied for synchronization due to the significant influence of complex coupling factors on oscillations, leading to stability loss and dissipative structures in the reaction system. | |
13 Citations | BZ reactions are studied for synchronization due to their complex chemical-mechanical feedback, allowing control through catalyst patterning for applications like sensors and chemical computing in composite hydrogels. |
| BZ reactions are studied for synchronization due to their ability to exhibit various synchronous regimes, including in- and antiphase oscillations, Turing patterns, and complex combinations, mimicking natural diffusive inhibitory coupling. | |
1 Citations | BZ reactions are studied for synchronization due to their potential for inducing spontaneous synchronization through passive electrochemical coupling, offering insights for pattern recognition and neuromorphic computation systems. |
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