The composite device ability refers to all the participated device abilities in spatial extent.
The space extent of composite device operation can be calculated by all the space extents of participated device operations, i.e., σ { ( x comOp 1, y comOp 1, z comOp 1 ), …, ( x comOpm, y comOpm, z comOpm ) } = Ω ( σ { ( x op 11, y op 11, z op 11 ), …, ( x op 1 m, y op 1 m, z op 1 m ) },, … σ { ( x opk 1, y opk 1, z opk 1 ), …, ( x opkm, y opkm, z opkm ) } ) (22).
The space extent of composite device can be calculated by all the space extents of participated devices, i.e., σ { ( x cds 1, y cds 1, z cds 1 ), …, ( x cdsm, y cdsm, z cdsm ) } = Ω ( σ { ( x d 11, y d 11, z d 11 ), …, ( x d 1 m, y d 1 m, z d 1 m ) }, …, σ { ( x dk 1, y dk 1, z dk 1 ), …, ( x dkm, y dkm, z dkm ) } ) (25).
The primary contribution of the WAdL design is the ability to maintain, despite the mobility of the participating devices, a virtual lattice where the devices represent lattice points.
Multi-hop wireless networks, such as sensor-, ad hoc- and mesh-nets, can be differentiated in terms of participating devices and usage scenarios.
Along with this service, the opportunistic networking service of Cocoon facilitates fast and reliable information sharing between participating devices according to our real-world applicability and validation experiments presented in this work.
YZ, XY, and JX participated in the device preparation.
XL, HZ, and YY participated in the device preparation.
QL participated in the device fabrication and the analysis of emission and electrical properties.
JL participated in the device fabrication and the measurement of optical and electrical properties.
FL participated in the device preparation and performed the statistical analysis.
