The slides I presented at the 2014 Web Science Education workshop, based on my accepted paper. The abstract of the paper follows:
This paper considers the ways in which Web Science education can benefit from an analysis method used to gauge disciplinary representation. Three key contributions are identified: 1) driving development of the Web Science curriculum; 2) teaching Web Science, i.e. considering its evolution over time and using the method to foster comparisons of Web Science with other like fields; 3) teaching the analysis method itself as an example of a mixed methods, Web Science method.
This paper addresses topic #1 of the Web Science Education activities (Web Science education programmes design).
Web & Social Media Analytics Previous Year Question Paper.pdf
The Role of Disciplinary Analysis in Web Science Education
1. The Role of Disciplinary Analysis in
Web Science Education
23 June 2014
Clare Hooper, IT Innovation Centre
cjh@it-innovation.soton.ac.uk
Web Science Education at ACM Web Science 2014
I will introduce disciplinary analysis and discuss its use in Web Science education for:
Driving curriculum development
Teaching about Web Science’s state and evolution
An example of a mixed methods approach
Quality: Contractor has shown collaborator diversity impacts quality of work
Credibility: What if CS and Sociology are the only contributors?
Insight: identify over- and under-representation, take action if needed.
Communication: to externals about what InternetSci is, and internally too
Much of this work was done in conjunction with DERI
Natural language processing: computer science and linguistics about understanding natural human languages.
Work developed over 3 years. Test w/69 papers; 500 papers 13 person survey; bigger corpus 123 person survey
Application contexts as key areas
Disciplinary representation as one of a number of inputs to inform the curriculum
‘Peak terms’: terms to occur in five or more publications that ‘peak’ in a given year (a difference of more than 5 papers in different years) in both papers and posters.
• 2009: machine learning; real world
• 2010: available online; information exchange; information retrieval; information sharing; natural language; RDF graph; real time; semantic web; share information; SPARQL query
• 2011: social media.