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varies with different social network structures. In particular, a “compartmentalized” social |
network structure was identified as the most academically supportive. The results of this study |
uphold social network analysis as an appropriate method for use in researching digital social |
networks and help inform college students about which types of digital and in-person social |
network structures can benefit them academically. |
Introduction |
Our success depends on the integrity of our social networks. For college students, |
academic success can be helped or hindered by the quality and structure of the relationships that |
a student has. The extent to which a student is able to seek out linear algebra tutoring, history |
paper peer reviews, or neuroscience study sessions is determined by who they know and how |
they know them. |
Literature on the relationship between social networks and academic performance is vast. |
Sociologists use social network analysis (SNA) to understand interactions among networks and |
their participants, and SNA has been applied in the classroom on many occasions (Serrat, 2017). |
Most studies suggest that social network depth and breadth correlate with academic success. One |
experiment conducted with 226 undergraduate university students found that socially isolated |
students had significantly lower examination grades than socially integrated students and were |
more likely to drop out of university (Stadtfeld et al., 2019). Another study on 538 |
undergraduates reported that the quality of a student’s social network is the most predictive |
feature of their academic success, above individual characteristics like personality and class |
attendance (Kassarnig et al., 2018). |
But exactly how much does academic performance depend on social networks and what |
features of social networks is academic performance contingent on? Past research on grade point |
average (GPA) and social network characteristics helps clarify the relationship between |
academics and social connectivity. One research team observed that variance in social network |
size correlated with a half point of GPA; students with the most friends scored about a half point |
of GPA higher than students without friends (Khalil et al., 2019). Another team focusing |
specifically on the classroom environment found that social network centrality – how connected a student is in the classroom network – explained 47 percent of the variance in a student’s GPA |
for any given class (Williams et al., 2019). So, the more people that a student knows and the |
better they know them, the higher their GPA will be. |
The structure of social networks can differ independent of their size or centrality. |
Sociologist Janice McCabe offers a taxonomy for classifying social network structure based on |
her research of university undergraduates (McCabe, 2016). She identifies three distinctive types: |
tight-knitters, compartmentalizers, and samplers. Tight-knitters have one densely woven |
friendship network in which nearly all of their friends are friends with one another. The level of |
academic support and motivation that tight-knitters receive is directly determined by the skills |
and motivation of their ingroup. Compartmentalizers’ friends form two to four clusters, where |
friends know each other within clusters but rarely across them. Compartmentalizers often |
succeed academically by seeking support from different clusters depending on their needs. |
Samplers make a friend or two from a variety of places, but the friends remain unconnected to |
each other. The academic success of samplers is determined by their intrinsic skill and |
motivation given that they lack significant support in their network (McCabe, 2016). |
The social networks that McCabe and most SNA models focus on are in-person, face-to- |
face networks. In the digital age, however, students’ social networks can also exist online. |
According to a study of social media use among college-age students, 98 percent of US adults |
aged 18 to 24 use social media in a typical month (Perrin, 2020). Social media allows students to |
stay connected with their offline network or expand their networks to include new online |
relationships. Often, when it is undesirable or impossible for a student’s social network to be |
realized in person, they will turn to social media. Research on the reliance of college students on |
social media found that about two-thirds of students agreed that social media helps them feel |
more connected to their peers and that this connection aids their academic success (Creighton et |
al., 2013). Academically-supportive online social networks do not look all too different from |
those developed offline. SNA performed on social media platforms Twitter and Facebook |
revealed that online communities have very similar structural characteristics to offline face-to- |
face networks (Dunbar et al., 2015). Thus, if we see McCabe’s tight-knitters, |
compartmentalizers, and samplers in offline networks, then we can expect that structural |
taxonomy to carry over to the online world. |
The structure of offline social networks is an indicator of academic performance because |
who a student knows and how they know them determines how much academic support they will |
receive. But what about online social networks? If students are becoming more reliant on their |
social media networks for building relationships and receiving academic support, does the |
structure of a student’s online network influence academic performance too? |
Fieldwork hints that the answer to this question is a resounding “yes.” Past studies |
suggest that the structure of offline social networks correlates with academic performance, |
students are increasingly reliant on digital social networks for academic support, and that offline |
and online social networks share similar structures. Given these premises, we can derive the |
following hypotheses: |
H1: if online social networks have structures that parallel those of McCabe’s |
model, then the number of relationships that students have on social media will |
vary significantly across different social network structures |
H2: if the structure of social networks influences academic performance, then |
students’ GPA will vary significantly across different social network structures |
Experimental results supporting these hypotheses would inform future initiatives in SNA |
and how college students build their social networks. The primary implication is expanding the |
reach of McCabe’s social network taxonomy. Currently, McCabe’s model has only been applied |
to in-person social networks. Evidence of varying academic performance and number of online |
relationships across McCabe’s social network structures, however, would corroborate the |
model’s application to online social networks. Beyond McCabe’s model, supportive empirical |
results would also encourage the use of SNA in modeling social networks irrespective of their |
medium. Whether it be online or offline, an affirmation of these hypotheses would uphold that |
SNA transcends the medium in which people realize their social networks. Lastly, results |
upholding these hypotheses would illuminate the importance of social network structure for |
college students. If social network structure varies with GPA, then students ought to give more |
consideration to how they form friendships. The influence of social network structure would be |
compounded even further if we find that offline social network structure can be realized online |
too. It is possible that particular social network structures offer more academic support than |
others and some students would want to opt for structures that maximize their academic |
resources. |
Method |
Subsets and Splits