This document describes the Network Mobility (NEMO) Basic Support
protocol that enables Mobile Networks to attach to different points in
the Internet. The protocol is an extension of Mobile IPv6 and allows
session continuity for every node in the Mobile Network as the network
moves. It also allows every node in the Mobile Network to be reachable
while moving around. The Mobile Router, which connects the network to
the Internet, runs the NEMO Basic Support protocol with its Home
Agent. The protocol is designed so that network mobility is
transparent to the nodes inside the Mobile Network. [STANDARDS-TRACK]

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Network Mobility (NEMO) Basic Support Protocol

Exploiting smart e-Health gateways at the edge of healthcare Internet-of-Things

"It is stunningly thorough and takes readers meticulously through the design, conguration and operation of IPv6-based, low-power, potentially mobile radio-based networking" Vint Cerf, Vice President and Chief Internet Evangelist, Google This book provides a complete overview of IPv6 over Low Power Wireless Area Network (6LoWPAN) technology In this book, the authors provide an overview of the 6LoWPAN family of standards, architecture, and related wireless and Internet technology Starting with an overview of the IPv6 Internet of Things, readers are offered an insight into how these technologies fit together into a complete architecture The 6LoWPAN format and related standards are then covered in detail In addition, the authors discuss the building and operation of 6LoWPAN networks, including bootstrapping, routing, security, Internet ingration, mobility and application protocols Furthermore, implementation aspects of 6LoWPAN are covered Key Features: Demonstrates how the 6LoWPAN standard makes the latest Internet protocols available to even the most minimal embedded devices over low-rate wireless networks Provides an overview of the 6LoWPAN standard, architecture and related wireless and Internet technology, and explains the 6LoWPAN protocol format in detail Details operational topics such as bootstrapping, routing, security, Internet integration, mobility and application protocols Written by expert authors with vast experience in the field (industrial and academic) Includes an accompanying website containing tutorial slides, course material and open-source code with examples (http://6lowpannet ) 6LoWPAN: The Wireless Embedded Internet is an invaluable reference for professionals working in fields such as telecommunications, control, and embedded systems Advanced students and teachers in electrical engineering, information technology and computer science will also find this book useful

6LoWPAN: The Wireless Embedded Internet

Vehicle-to-anything (V2X) communications refer to information exchange between a vehicle and various elements of the intelligent transportation system (ITS), including other vehicles, pedestrians, Internet gateways, and transport infrastructure (such as traffic lights and signs). The technology has a great potential of enabling a variety of novel applications for road safety, passenger infotainment, car manufacturer services, and vehicle traffic optimization. Today, V2X communications is based on one of two main technologies: dedicated short-range communications (DSRC) and cellular networks. However, in the near future, it is not expected that a single technology can support such a variety of expected V2X applications for a large number of vehicles. Hence, interworking between DSRC and cellular network technologies for efficient V2X communications is proposed. This paper surveys potential DSRC and cellular interworking solutions for efficient V2X communications. First, we highlight the limitations of each technology in supporting V2X applications. Then, we review potential DSRC-cellular hybrid architectures, together with the main interworking challenges resulting from vehicle mobility, such as vertical handover and network selection issues. In addition, we provide an overview of the global DSRC standards, the existing V2X research and development platforms, and the V2X products already adopted and deployed in vehicles by car manufactures, as an attempt to align academic research with automotive industrial activities. Finally, we suggest some open research issues for future V2X communications based on the interworking of DSRC and cellular network technologies.

Interworking of DSRC and Cellular Network Technologies for V2X Communications: A Survey

Vehicles on the road with some common interests can cooperatively form a platoon-based driving pattern, in which a vehicle follows another vehicle and maintains a small and nearly constant distance to the preceding vehicle. It has been proved that, compared with driving individually, such a platoon-based driving pattern can significantly improve road capacity and energy efficiency. Moreover, with the emerging vehicular ad hoc network (VANET), the performance of a platoon in terms of road capacity, safety, energy efficiency, etc., can be further improved. On the other hand, the physical dynamics of vehicles inside the platoon can also affect the performance of a VANET. Such a complex system can be considered a platoon-based vehicular cyber-physical system (VCPS), which has attracted significant attention recently. In this paper, we present a comprehensive survey on a platoon-based VCPS. We first review the related work of a platoon-based VCPS. We then introduce two elementary techniques involved in a platoon-based VCPS, i.e., the vehicular networking architecture and standards, and traffic dynamics, respectively. We further discuss the fundamental issues in a platoon-based VCPS, including vehicle platooning/clustering, cooperative adaptive cruise control, platoon-based vehicular communications, etc., all of which are characterized by the tightly coupled relationship between traffic dynamics and VANET behaviors. Since system verification is critical to VCPS development, we also give an overview of VCPS simulation tools. Finally, we share our view on some open issues that may lead to new research directions.

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A Survey on Platoon-Based Vehicular Cyber-Physical Systems

Network-based mobility management enables IP mobility for a host
without requiring its participation in any mobility-related signaling.
The network is responsible for managing IP mobility on behalf of the
host. The mobility entities in the network are responsible for
tracking the movements of the host and initiating the required
mobility signaling on its behalf. This specification describes a
network-based mobility management protocol and is referred to as Proxy
Mobile IPv6. [STANDARDS-TRACK]

Proxy Mobile IPv6

According to the current Mobile IPv6 specification, a mobile node may
have several care-of addresses, but only one, termed the primary care-
of address, can be registered with its home agent and the
correspondent nodes. However, for matters of cost, bandwidth, delay,
etc, it is useful for the mobile node to get Internet access through
multiple access media simultaneously, in which case multiple active
IPv6 care-of addresses would be assigned to the mobile node. We thus
propose Mobile IPv6 extensions designed to register multiple care-of
addresses bound to a single Home Address instead of the sole primary
care-of address. For doing so, a new identification number must be
carried in each binding for the receiver to distinguish between the
bindings corresponding to the same Home Address. Those extensions are
targeted to NEMO (Network Mobility) Basic Support as well as to Mobile
IPv6.

/pdf/multiple-care-of-addresses-registration-3nepv8w9kw.pdf

Multiple Care-of Addresses Registration

Mobile IPv6 uses IPsec to protect signaling between the home agent and the mobile node. Mobile IPv6 base document defines the main requirements these nodes must follow. This document discusses these requirements in more depth, illustrates the used packet formats, describes suitable configuration procedures, and shows how implementations can process the packets in the right order.

/pdf/using-ipsec-to-protect-mobile-ipv6-signaling-between-mobile-22vp26vd8o.pdf

Using IPsec to Protect Mobile IPv6 Signaling Between Mobile Nodes and Home Agents

This document describes Mobile IPv6 operation with the revised IPsec
architecture and IKEv2. [STANDARDS-TRACK]

Vijay Devarapalli

Papers

Proxy Mobile IPv6

Network Mobility (NEMO) Basic Support Protocol

Multiple Care-of Addresses Registration

Using IPsec to Protect Mobile IPv6 Signaling Between Mobile Nodes and Home Agents

Mobile IPv6 Operation with IKEv2 and the Revised IPsec Architecture