About: Link Control Protocol is a research topic. Over the lifetime, 1760 publications have been published within this topic receiving 40992 citations. The topic is also known as: LCP.
TL;DR: This work identifies three fundamental principles that would underlie a delay-tolerant networking (DTN) architecture and describes the main structural elements of that architecture, centered on a new end-to-end overlay network protocol called Bundling.
Abstract: Increasingly, network applications must communicate with counterparts across disparate networking environments characterized by significantly different sets of physical and operational constraints; wide variations in transmission latency are particularly troublesome. The proposed Interplanetary Internet, which must encompass both terrestrial and interplanetary links, is an extreme case. An architecture based on a "least common denominator" protocol that can operate successfully and (where required) reliably in multiple disparate environments would simplify the development and deployment of such applications. The Internet protocols are ill suited for this purpose. We identify three fundamental principles that would underlie a delay-tolerant networking (DTN) architecture and describe the main structural elements of that architecture, centered on a new end-to-end overlay network protocol called Bundling. We also examine Internet infrastructure adaptations that might yield comparable performance but conclude that the simplicity of the DTN architecture promises easier deployment and extension.
TL;DR: This document describes the end-to-end protocol, header formats, and abstract service description for the exchange of messages (bundles) in Delay Tolerant Networking (DTN).
Abstract: This document describes the end-to-end protocol, header formats, and
abstract service description for the exchange of messages (bundles) in
Delay Tolerant Networking (DTN).
TL;DR: A detailed study was made of the Transmission Control Protocol (TCP), the transport protocol from the Internet protocol suite, and it was concluded that TCP is in fact not the source of the overhead often observed in packet processing, and that it could support very high speeds if properly implemented.
Abstract: The transport layer of the protocol suite, especially in connectionless protocols, has considerable functionality and is typically executed in software by the host processor at the end points of the network. It is thus considered a likely source of processing overhead. However, a preliminary examination has suggested to the authors that other aspects of networking may be a more serious source of overhead. To test this proposition, a detailed study was made of the Transmission Control Protocol (TCP), the transport protocol from the Internet protocol suite. In this set of protocols, the functions of detecting and recovering lost or corrupted packets, flow control, and multiplexing are performed at the transport level. The results of that study are presented. It is concluded that TCP is in fact not the source of the overhead often observed in packet processing, and that it could support very high speeds if properly implemented. >
TL;DR: A new solution approach is introduced that offers protection against SYN flooding for all hosts connected to the same local area network, independent of their operating system or networking stack implementation, and requires neither special hardware, nor modifications in routers or protected end systems.
Abstract: The paper analyzes a network based denial of service attack for IP (Internet Protocol) based networks. It is popularly called SYN flooding. It works by an attacker sending many TCP (Transmission Control Protocol) connection requests with spoofed source addresses to a victim's machine. Each request causes the targeted host to instantiate data structures out of a limited pool of resources. Once the target host's resources are exhausted, no more incoming TCP connections can be established, thus denying further legitimate access. The paper contributes a detailed analysis of the SYN flooding attack and a discussion of existing and proposed countermeasures. Furthermore, we introduce a new solution approach, explain its design, and evaluate its performance. Our approach offers protection against SYN flooding for all hosts connected to the same local area network, independent of their operating system or networking stack implementation. It is highly portable, configurable, extensible, and requires neither special hardware, nor modifications in routers or protected end systems.
TL;DR: The Extensible Authentication Protocol (EAP) is a PPP extension that provides support for additional authentication methods within PPP.
Abstract: The Point-to-Point Protocol (PPP) provides a standard method for transporting multi-protocol datagrams over point-to-point links. PPP also defines an extensible Link Control Protocol (LCP), which can be used to negotiate authentication methods, as well as an Encryption Control Protocol (ECP), used to negotiate data encryption over PPP links, and a Compression Control Protocol (CCP), used to negotiate compression methods. The Extensible Authentication Protocol (EAP) is a PPP extension that provides support for additional authentication methods within PPP.