Effects of iterative block ciphers on quality of experience for Internet Protocol Security enabled voice over IP calls

El siguiente artículo presenta un análisis de las métricas de QoS (Quality Of Service) más relevantes para el servicio IPTV (Internet Protocol Television) sobre una infraestructura de red Móvil basada en MIPV4 y MIPV6, el cual es realizado con el Sniffer Wireshark. Es de suma importancia evaluar las métricas en el servicio, dado que esto permitirá observar cuál es el rendimiento de la red durante la trasmisión de cualquier servicio multimedia, dependiendo del protocolo móvil. De acuerdo a lo anterior, el resultado logrado es que en MIPV6 es más eficiente la calidad de la red para trasmitir un servicio IPTV, dado que las métricas evaluadas arrojaron que hay menos retardo y pérdidas de paquetes durante la trasmisión, esto se puede notar dado que en MIPV4, cuando el MN(Mobile Node) se encuentra ubicado en el FA(Foreing Agent), la pérdida es de 7% mientras que en MIPV6 es de 2%, favoreciendo la trasmisión del servicio hacia MIPV6. Para continuar con el trabajo, se recomienda evaluar la QoE (Quality Of Experience) del servicio en los diferentes protocolos móvil, con el fin de lograr un acercamiento a lo que puedan percibir o sentir los usuarios sobre el servicio.

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Internet Protocol Security as the Network Cryptography System

10.31227/osf.io/mdn9h ◽

2017 ◽

Author(s):

Andysah Putera Utama Siahaan

Keyword(s):

Internet Protocol ◽

Security Protocol ◽

The Internet ◽

Protocol Security ◽

Secure Information ◽

System P ◽

Encrypt Data ◽

Packet Header ◽

Cryptographic Keys ◽

Internet Protocol Security

Internet Protocol Security (IP Security) is a security protocol that serves to secure information in the event of an exchange on the internet. It happens if there is a connection between private IP and public IP. This protocol will exchange packets on the IP layer safely. It provides two types of encryption options, transport, and tunnel. Transport mode will encrypt the data section without changing the packet header. The algorithm used to encrypt data is a symmetric cryptography algorithm. This protocol authenticates and encrypts every packet from a data transmission session. Also, it can generate keys between the sender and the recipient at the first time it is activated and can negotiate the cryptographic keys that will be used during the session. IP Security is an end-to-end cryptosystem that works at the internet layer of the Internet Protocol Suite. The protocol serves to protect the data flow in host-to-host, network-to-network, and network-to-host as well.

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Implementation of Internet protocol security in video conferencing over IPV4/V6 on the Linux platform

Proceedings. Student Conference on Research and Development, 2003. SCORED 2003. ◽

10.1109/scored.2003.1459718 ◽

2005 ◽

Author(s):

Lee Ling Chuan ◽

K. Jumari ◽

M. Ismail ◽

K. Anuar

Keyword(s):

Video Conferencing ◽

Internet Protocol ◽

Protocol Security ◽

Internet Protocol Security ◽

Linux Platform

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A Solution for Evaluating the QoS of Voice over IP

Advanced Communication Protocol Technologies - Advances in Wireless Technologies and Telecommunication ◽

10.4018/978-1-60960-732-6.ch017 ◽

2011 ◽

pp. 378-396

Author(s):

Homero Toral-Cruz ◽

Deni Torres-Román ◽

Leopoldo Estrada-Vargas

Keyword(s):

Packet Loss ◽

Empirical Relationship ◽

Internet Protocol ◽

Voice Over Ip ◽

Packet Loss Rate ◽

Mathematical Background ◽

Voice Traffic ◽

Power Law Function ◽

Self Similar

In this chapter, we present a solution for evaluating the Quality of Services (QoS) of Voice over Internet Protocol (VoIP). First, we present an introduction to the main concepts and mathematical background relating to QoS and Internet Protocol (IP) traffic nature, which subsequently are used in the measurements, analysis, and modeling of VoIP traffic. Secondly, we analyze network measurements and the result of the simulation in order to characterize the VoIP traffic nature. As results of this analysis, it is shown that VoIP jitter can be modeled by alpha-stable distributions and self-similar processes, with either Short or Long Range Dependence (i.e., SRD or LRD). Thirdly, we investigate the packet loss effects on the VoIP jitter, and present a methodology for simulating packet loss on VoIP jitter. Finally, we found an empirical relationship between the Hurst parameter (H) and the Packet Loss Rate (PLR); this relationship is based on voice traffic measurements and can be modeled by means of a power-law function with three fitted parameters.

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