Abstract

This Project is intended to develop a web application in order to make it easier for pedestrians to navigate using a map system named OpenStreetMap OSM. This Open-Source map system provides us a wide range of possibilities when it comes to develop a new application as its maps are totally editable and servers do not have license limitations. The Project aim is to install and configure our own OSM server which is going to give us all the map information such as roads, points of interest, parks, train lines and so on. Another goal is to implement and set up Nominatim and XAPI services which are going to help us when having to make requests to be able to get data from some points or areas on our map. Finally, it has been developed a routing application on OSM map in which we are able to make shortest path queries between 2 points on our map and it is loaded on street map. In order to enhance routing application and take advantage of public transports which OSM serves us, it is going to take into account public transport when distance between these 2 points is too large for a pedestrian.

Abstract

English: road safety has become a main issue for governments and car manufacturers in the last twenty years. Thus, the concept of Intelligent Transportation Systems (ITS) appeared. This concept is used when talking about communication technologies between vehicles and infrastructure that improve transport safety, its management, environmental performance etc. Due to the high economic cost of real-life tests and experimentation, the use of simulators becomes really useful when developing ITS. Nonetheless, simulators not always include all the capabilities needed to simulate these kinds of networks. Thus, in this project the NCTUns simulator is modified in order to add new capabilities that allow users simulate ITS. Furthermore, urban and interurban scenarios are simulated in order to evaluate how the use of these networks decreases the drivers reaction time when an unexpected situation occurs and how modifications made in NCTUns work. Castellano: la seguridad en la carretera se ha convertido en un problema principal para gobiernos y fabricantes de automóviles en los últimos años. De esta forma, se creó el concepto de Sistema de Transporte Inteligente (STI), concepto utilizado al hablar sobre las tecnologías de comunicación entre vehículos e infraestructura que mejoran la seguridad vial en el transporte, su mejor gestión, su eficiencia medioambiental, etc. Debido al alto coste económico de probar STI en situaciones reales, el uso de simuladores es realmente útil a la hora de desarrollar STI. Así, en este proyecto el simulador NCTUns ha sido modificado con el objetivo de añadir nuevas posibilidades al simulador que ayuden a diseñar STI. Además, un escenario urbano y otro interurbano han sido simulados con el objetivo de evaluar como el uso de estas redes hace disminuir el tiempo de reacción del conductor cuando una situación inesperada ocurre y comprobar cómo funcionan los cambios realizados en el simulador. Català: la seguretat a la carretera ha esdevingut un problema principal pels governs i pels fabricants d'automòbils en els últims anys. D'aquesta manera, es crea el concepte de Sistema de Transport Intel'ligent (STI), concepte utilitzat en parlar sobre les tecnologies de comunicació entre vehicles i infraestructura que milloren la seguretat vial en el transport, la seva millor gestió, l'eficiència mediambiental, etc. A causa de l'alt cost econòmic de provar STI en situacions reals, l'ús de simuladors és realment útil a l'hora de desenvolupar STI. Així, en aquest projecte el simulador NCTUns ha estat modificat amb l'objectiu d'afegir noves possibilitats al simulador que ajudin a dissenyar STI a futurs usuaris. A més, un escenari urbà i un altre interurbà han estat simulats amb l'objectiu d'avaluar com l'ús d'aquestes xarxes fa disminuir el temps de reacció del conductor quan una situació inesperada succeeix i comprovar com funcionen els canvis realitzats en el simulador.

Abstract

This paper discusses some challenges that user mobility imposes over the user-centric protection model against security threats. This model is based on the idea of offloading the security applications from the end user device, and placing them in a trusted network node at the network's edge. Our research perspective is particularly centered around three interrelated mobility challenges, i) the allocation of the security applications “close” to the user, i.e., on network nodes with enhanced processing capabilities, ii) seamless mobility with negligible disruption of ongoing network connections, and iii) dynamic orchestration and management with support of security applications migration. Based on our arguments, we expose the main requirements and trade-offs to be considered in the attempt to support mobility in such environment. We propose a flexible solution that leverages Software Defined Networking, Network Function Virtualization and Computing at the Network Edge to offer a seamless on-path security protection to mobile users. Our preliminary experiments' results considering a WiFi mobile user show that seamless security migration and mobility are feasible in a simple real scenario. Vertical mobility and more complex use cases scenarios are envisioned for future research. Peer Reviewed Document type: Conference object