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In particular, featured topics include theoretical modeling of spin-wave dynamics,[[1], [3], [5]] magnonic crystals,[[6], [8], [10]] magnetic bilayers,[11] developments in spin-wave sensing[[6], [12]] and spin-wave computing,[[13]] hybrid magnonic systems,[[3], [15], [17]] interactions between spin waves and topological spin textures,[[19]] nuclear spin waves,[21] and novel theoretical approaches to the dissipative nature of magnons in magnetic and hybrid magnonic systems.[22] The optimization of magnonic devices critically relies on a comprehensive understanding of the spin-wave properties, which can be developed through a combination of theoretical modeling and experimental advancements in spin-wave sensing techniques. Magnonics is an exciting and rapidly growing field revolving around the study and manipulation of magnons, the low-lying collective excitations of magnetically ordered systems. Consequently, numerous efforts are focused on developing spin-wave-based approaches to information processing that encode information in the amplitude and phase of spin waves and manipulate it via spin-wave gates and spin-wave interferometers. [Extracted from the article]