The communication system applied to public networks at present is deficient for protection service in terms of resource allocation, interface design, transmission performance, and operation and maintenance.
Furthermore, given the physical topology of the routers and other constraints in MR-MC WMNs, four important issues that need to be addressed are summarized in [10], i.e., logical topology formation, interface assignment, channel allocation, and routing.
When designing a multimodal human machine interface, the human function allocation must be considered.
Fixson and Park [29] used two dimensions of the function-component allocation and interface to measure difference between the integral and modular structure.
It has been used for a range of applications, including interface design and evaluation, allocation of function, job aid design, error prediction, and workload assessment.
The surface to volume ratio of nanomaterials increases dramatically compared to their bulk form and is able to improve the sensitivity of biosensors through increasing the interface for recognition element allocation.
Cancellous bone in the implant-host interface showed a diffuse allocation of silver signals whereas connective tissue membranes surrounding the stem exhibited minor but revealed a cumulation of silver signals located at the soft tissue-cortical bone interface.
The interfaces to request GPU allocation and deallocation can be divided in two.
Intensive research is required in the fields of overlaying multiple transmissions, new air interfaces, smart pre-allocation of resources, reduction of the synchronization requirements, and context/service-aware configuration of the radio access.
In [10], the authors proposed the TiMesh MC-WMN architecture, in which the logical channel allocation, topology design, interface assignment and routing are formulated as a joint linear mixed integer optimization problem.
