Abstract
This chapter has three objectives: (1) to describe how social network analyses (SNA) can be used to explore complexity dynamics in education; (2) to provide a primer on SNA methods; and (3) to explore statistical procedures for hypothesis testing with SNA. SNA has experienced increasing popularity in recent years, but resources available to researchers wanting to learn about this methodology are sparse. That which is available typically fails to link SNA to complexity theory, although this would seem an obvious context. This chapter briefly describes major principles of complexity theory and how network analyses are useful for exploring social dynamics. We then explain what SNA is, the types of analyses it performs, and its various uses. This section delves into issues such as designing SNA analyses, data collection procedures, and converting non-matrix data for use in SNA. Lastly, the chapter describes statistical procedures for analyzing network data. In particular, we explain how to conduct multiple regression quadratic assignment procedures and p* to test hypotheses about network dynamics. Issues of using network coefficients with traditional, variable-based statistics are discussed. Examples of applicable research questions and research studies are provided to help readers formulate questions and research designs.
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Appendix: Sample Survey for Collecting Network Data—Structured for use in ORA
Appendix: Sample Survey for Collecting Network Data—Structured for use in ORA
What is your name? (this is very important; your name will be deleted as soon as the data is formatted and before analysis).
[DROPDOWN LIST WORKS WELL]
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1.
From the following list, identify the people with whom you regularly talk about work-related issues (choose all that apply).
[LIST ALL PROFESSIONALS BOUNDED BY THE RESEARCH NETWORK; this question, with the drop-down list above, enables construction of an agent-by-agent matrix]
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2.
Which of the following tasks do you perform on a regular basis at this school (Choose all that apply)? This data can be used to create an agent-by-task matrix.
Teach pre-k
Teach Gr 4
Teach Special Ed
Teach Art
Administration
Teach k
Teach Gr5
Teach remedial lessons
Coordinate Title I Activities
Other support services
Teach Gr1
Teach Art
Teach computers
Teach, other
Financial monitoring
TeachGr2
Teach PE
Teach music
Counseling/Psychology
 Teach Gr3
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3.
Which of the following knowledge would someone most need to perform your tasks at this school (choose all that apply)? Data for an agent-by-knowledge matrix.
Budgeting
Finding resources
Differentiating instruction
Music
Using technology
Community partnerships
Subject area content
Child growth/development
Organizational management
Clerical
Student testing
Subject area content standards
Motivating students
Using data to assess learning
Nursing
Writing IEPs
Developing curriculum
Classroom management
Standardized test statistics
Psychology
Implementing IEPs
Pedagogy/teaching styles
Recreation/physical development
School rules- policies- procedures
Using technology
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Marion, R., Schreiber, C. (2016). Evaluating Complex Educational Systems with Quadratic Assignment Problem and Exponential Random Graph Model Methods. In: Koopmans, M., Stamovlasis, D. (eds) Complex Dynamical Systems in Education. Springer, Cham. https://doi.org/10.1007/978-3-319-27577-2_10
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DOI: https://doi.org/10.1007/978-3-319-27577-2_10
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