Warning: These projects all involve substantial coding, often in languages, environments or at levels not commonly exercised in your other courses. They might all be considered difficult and some may involve publishable research. I would not recommend considering them unless you are both a confident programmer and likely to perform well in the exams.
If you’re a third-year or masters student at University of Nottingham and you do wish to take on one of these projects, please mail me.
If anyone else either implements any of these, can prove that they’re impossible, or has any other interesting comment to make, then also, please mail me.
Personal Containers are a new way to store and manage your digital footprint. One current instantiation uses Google App Engine as a cloud presence. Develop and evaluate an XMPP interface enabling you to talk to, query and control your Personal Container.
Gmail stores my email but does not expose the full power of, e.g., labelling via its IMAP interface. Implement tools to enable me to manipulate my email on Gmail, including importing into Perscon. Without loss of generality this project can be attempted with other webmail systems, e.g., Hotmail.
Develop and evaluate some substantial piece of systems software, e.g., XMPP server, BGP router, in OCaml, suitable for use on the Mirage platform.
libpcap is the standard packet format parser, but it’s reasonably poor at dealing with very large files (at least on Windows), with damaged files, and with files where an incomplete snaplen was used. Develop and evaluate a better one, preferably in a modern language, e.g., OCaml, F#.
Python is a useful language; Mirage is a cool approach to lightweight virtual machines currently relying on OCaml; Vyper is an incomplete and probably out-of-date implementation of Python in OCaml. Mash all this up to develop support for Python programs to run on Mirage.
Develop and evaluate simple augmented reality application for Android phones that shows satellites, the ISS and other objects not currently displayed by Google Sky Maps.
Develop and evaluate a simple augmented reality application that collects and visualises the various sources of radio signal out there, e.g., WiFi, 3G, GPRS. Use collected data to produce an analysis (possibly as a tool) to better inform which data transports should be used, when.
Modern kernels typically permit extensive instrumentation. Develop a kernel instrumentation system for Android that can be used to log UI, system, network, power and other events. Use it to perform some simple benchmarking of, e.g., power consumption.
Android presents a capability model for applications that relies on apps declaring what they need and the user agreeing at install time. Produce tools to audit and visualise who can do what, who has done what and (bonus, might be impossible) dynamically modify manifests so that applications can be given time-limited capabilities.
Map distortion to use distance to represent other quantities such as time is quite widely studied. Develop a web service that produces maps of the UK distorted by time. This will involve researching, implementing and perhaps extending existing published algorithms, as well as building a scalable web service on top of data from, e.g., http://OpenStreetMap.org/.
All projections of the world’s geography onto a plane introduce distortions. Develop a web service that produces maps using various well known projections, oriented and centered on an arbitrary point, able to be printed to reasonable quality. This will involve building a scalable web service as well as evaluating and comparing the distortions introduced.