| Literature DB >> 27258007 |
Ilan Kelman1,2, Tobias Luthe3,4, Romano Wyss5, Silje H Tørnblad6, Yvette Evers7, Marina Martin Curran8, Richard J Williams9, Eric L Berlow9.
Abstract
This study integrates quantitative social network analysis (SNA) and qualitative interviews for understanding tourism business links in isolated communities through analysing spatial characteristics. Two case studies are used, the Surselva-Gotthard region in the Swiss Alps and Longyearbyen in the Arctic archipelago of Svalbard, to test the spatial characteristics of physical proximity, isolation, and smallness for understanding tourism business links. In the larger Surselva-Gotthard region, we found a strong relationship between geographic separation of the three communities on compartmentalization of the collaboration network. A small set of businesses played a central role in steering collaborative decisions for this community, while a group of structurally 'peripheral' actors were less influential. By contrast, the business community in Svalbard showed compartmentalization that was independent of geographic distance between actors. Within towns of similar size and governance scale, Svalbard is more compartmentalized, and those compartments are not driven by geographic separation of the collaboration clusters. This compartmentalization in Svalbard was reflected in a lower density of formal business collaboration ties compared to the communities of the Alps. We infer that the difference is due to Svalbard having higher cultural diversity and population turnover than the Alps communities. We propose that integrating quantitative network analysis from simple surveys with qualitative interviews targeted from the network results is an efficient general approach to identify regionally specific constraints and opportunities for effective governance.Entities:
Mesh:
Year: 2016 PMID: 27258007 PMCID: PMC4892632 DOI: 10.1371/journal.pone.0156028
Source DB: PubMed Journal: PLoS One ISSN: 1932-6203 Impact factor: 3.240
The case studies’ geographic and political characteristics.
| Region | Surselva-Gotthard | Spitsbergen | ||
|---|---|---|---|---|
| Location | Switzerland, Canton Uri | Switzerland, Canton Grisons | Norway, Arctic Archipelago of Svalbard | |
| Compared communities | Andermatt | Tujetsch (Sedrun) | Disentis | Longyearbyen |
| Surface area (km2) | 62.16 | 13.99 | 91.07 | 37,673 |
| Number of resident population | 1,279 | 1693 | 2,067 | 2,495 |
| Population per km2 | 20.58 | 121.02 | 22.70 | 0.07 |
| Minimum elevation | 1,360 | 1,230 | 969 | sea level |
| Maximum elevation | 3,001 | 3,327 | 3,614 | 1,713 |
| Official administrative language | German, Romanic (only Tujetsch and Disentis) | Norwegian | ||
| Administrative centre | Disentis/Muster (1,130 m) | Longyearbyen (sea level) | ||
| Nationalities of resident population | 79% Swiss | 74% Swiss | 89% Swiss | >30 different nations |
| Annual average precipitation (mm) | 1,697 | 1,212 | same station as Disentis | 190 |
| Economic dependency on tourism | 75–95% | 75–95% | 75–95% | >30%, increasing |
| Other industry sectors | Military Services (in decline) | Hydro Power Generation | Administration, Education | Coal mining, Research |
The SNA metrics of the case sites used and compared in this study.
The mean proportion of inter-cluster links is higher in Longyearbyen than in Surselva-Gotthard, indicating lower modularity in Longyearbyen, the same as the modularity values directly show.
| Surselva-Gotthard | Andermatt | Sedrun | Disentis | Longyearbyen | |
|---|---|---|---|---|---|
| Nodes | 133 | 52 | 50 | 31 | 61 |
| Links | 1,420 | 259 | 448 | 176 | 206 |
| Average Links per Node | 10.89 | 4.98 | 8.96 | 5.67 | 3.377 |
| Clustering Coefficient | 0.453 | 0.571 | 0.51 | 0.485 | 0.309 |
| Connectance | 0.16 | 0.20 | 0.37 | 0.38 | 0.11 |
| Modularity | 0.337 | 0.138 | 0.173 | 0.116 | 0.287 |
| Average Path Length | 2.12 | 1.84 | 1.69 | 1.77 | 2.13 |
Fig 1The Surselva-Gotthard tourism business collaboration network displayed in two ways: a) Force-directed layout where nodes that are more connected to one another cluster together in space, and b) geo-located in the three towns Andermatt, Disentis, and Sedrun. Each node is a business actor. Lines indicate self-described collaborative links between actors. Colour indicates clusters of actors that tend to collaborate more with one another than with those in other groups [56]. Modularity values are 0.33 (region), 0.14 (Andermatt), 0.12 (Disentis), and 0.17 (Sedrun). Collaboration clusters tend to be associated with geographic proximity. Nodes are sized by Cluster Centrality (c), and the density distribution of c is indicated in the grey bar. c = (l—i) / (1 + H) where: H = −∑p ln p; p = l/l; l = number of links of node i (i.e., 'degree'); l = number of i's links to cluster j; and i = number of links to nodes of a different cluster. A node is central to a cluster if it is highly connected and most of its connections are within its own cluster (as opposed to a different cluster). Visualised with VibrantData (http://vibrantdata.io.
Fig 2The relationship between geographic distance and collaboration modules for both the Surselva-Gotthard region in the Alps and Longyearbyen in the Arctic.
The data presented are the mean and standard deviation of geographic distances among all pairs of businesses within vs between each collaboration module identified in Fig 1.
Fig 3The Longyearbyen tourism business collaboration network displayed in two ways: a) Force-directed layout where nodes that are more connected to one another cluster together in space, and b) geo-located within the town of Longyearbyen. This network segments into five distinct collaboration clusters that appear to be independent of geographic distance. Modularity value is 0.29. Nodes are sized by Cluster Centrality. See Fig 1 for more details about cluster detection and node sizing.