We have proposed a new solution to optimize the handover performance for the HIP mobile nodes in a micro-mobility environment.
In this paper, we propose and analyze the design notion of dual-region mobility management (DrMoM) for achieving scalable, efficient location management of mobile nodes in ad hoc networks.
Mobile nodes in some challenging network scenarios, e.g. battlefield and disaster recovery scenarios, suffer from intermittent connectivity and frequent partitions.
Due to the complexity and heavy traffic of the legacy location-awareness techniques, simultaneous locationing and tracking of numerous mobile nodes in real-time is not easy.
The protocol architecture and protocol interfaces are designed, which are suitable for gateways and mobile nodes in such Internet integrated MANETs supporting Mobile IP.
RT-MuPAC (Real-time Multi-power Architecture for Cellular Networks) is based on two fundamental features not present in today's cellular networks: usage of multiple hops and power control (power control is used only in a limited way to reduce interference and save battery energy for the mobile nodes in today's cellular networks).
The basic idea is to employ local regions to complement existing home region based location service schemes that assign a home region through hashing to a mobile node and have mobile nodes in both the home and local regions serve as location servers for that node.
By means of a novel model-based approach to model the ground truth status of mobile nodes in MANETs as the basis for design validation, we identify and validate the best trust protocol settings under which trust bias is minimized and application performance is maximized.
The mobile nodes in their test bed employs both EV-DO and WiFi interfaces.
There are some studies on capacity scaling for mobile nodes in multi-hop wireless networks.
Wireless sensor network and wireless mobile nodes in the network interface configuration are exactly the same.
