Field-specific cultures of international research collaboration

Editors’ note: how can we better understand and map out the phenomenon of international research collaboration, especially in a context where bibliometrics does a patchy job with respect to registering the activities and output of some fields/disciplines? This is one of the questions Dr. Heike Jöns (Department of Geography, Loughborough University, UK) grapples with in this informative guest entry in GlobalHigherEd. The entry draws from Dr. Jöns’ considerable experience studying forms of mobility associated with the globalization of higher education and research.

Dr. Jöns (pictured above) received her PhD at the University of Heidelberg (Germany) and spent two years as a Feodor Lynen Postdoctoral Research Fellow of the Alexander von Humboldt Foundation at the University of Nottingham (UK). She is interested in the geographies of science and higher education, with particular emphasis on transnational academic mobility.

Further responses to ‘Understanding international research collaboration in the social sciences and humanities’, and Heike Jöns’ response below, are welcome at any time.

Kris Olds & Susan Robertson

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The evaluation of research performance at European universities increasingly draws upon quantitative measurements of publication output and citation counts based on databases such as ISI Web of Knowledge, Scopus and Google Scholar (UNESCO 2010). Bibliometric indicators also inform annually published world university rankings such as the Shanghai and Times Higher Education rankings that have become powerful agents in contemporary audit culture despite their methodological limitations. Both league tables introduced field-specific rankings in 2007, differentiating between the natural, life, engineering and social sciences (both rankings), medicine (Shanghai) and the arts and humanities (Times Higher).

But to what extent do bibliometric indicators represent research output and collaborative cultures in different academic fields? This blog entry responds to this important question raised by Kris Olds (2010) in his GlobalHigherEd entry titled ‘Understanding international research collaboration in the social sciences and humanities‘ by discussing recent findings on field-specific research cultures from the perspective of transnational academic mobility and collaboration.

The inadequacy of bibliometric data for capturing research output in the arts and humanities has, for example, been demonstrated by Anssi Paasi’s (2005) study of international publishing spaces. Decisions about the journals that enter the respective databases, their bias towards English-language journals and their neglect of monographs and anthologies that dominate in fields dominated by individual authorship are just a few examples for the reasons of why citation indexes are not able to capture the complexity, place- and language-specificity of scholarship in the arts and humanities. Mapping the international publishing spaces in the sciences, the social sciences and the arts and humanities using ISI Web of Science data in fact suggests that the arts and humanities are less international and even more centred on the United States and Europe than the sciences (Paasi 2005: 781). Based on the analysis of survey data provided by 1,893 visiting researchers in Germany in the period 1954 to 2000, this GlobalHigherEd entry aims to challenge this partial view by revealing the hidden dimensions of international collaboration in the arts and humanities and elaborating on why research output and collaborative cultures vary not only between disciplines but also between different types of research work (for details, see Jöns 2007; 2009).

The visiting researchers under study were funded by the Humboldt Research Fellowship Programme run by the Alexander von Humboldt Foundation (Bonn, Germany). They came to Germany in order to pursue a specific research project at one or more host institutions for about a year. Striking differences in collaborative cultures by academic field and type of research work are revealed by the following three questions:

1. Could the visiting researchers have done their research project also at home or in any other country?

2. To what extent did the visiting researchers write joint publications with colleagues in Germany as a result of their research stay?

3. In which ways did the collaboration between visiting researchers and German colleagues continue after the research stay?

On question 1.

Research projects in the arts and humanities, and particularly those that involved empirical work, were most often tied to the research context in Germany. They were followed by experimental and theoretical projects in engineering and in the natural sciences, which were much more frequently possible in other countries as well (Figure 1).

Figure 1 — Possibility of doing the Humboldt research project in another country than Germany, 1981–2000 (Source: Jöns 2007: 106)

These differences in place-specificity are closely linked to different possibilities for mobilizing visiting researchers on a global scale. For example, the establishment of new research infrastructure in the physical, biological and technical sciences can easily raise scientific interest in a host country, whereas the mobilisation of new visiting researchers in the arts and humanities remains difficult as language skills and cultural knowledge are often necessary for conducting research projects in these fields. This is one reason for why the natural and technical sciences appear to be more international than the arts and humanities.

On question 2.

Joint publications with colleagues in Germany were most frequently written in physics, chemistry, medicine, engineering and the biological sciences that are all dominated by multi-authorship. Individual authorship was more frequent in mathematics and the earth sciences and most popular – but with considerable variations between different subfields – in the arts and humanities. The spectrum ranged from every second economist and social scientist, who wrote joint publications with colleagues in Germany, via roughly one third in language and cultural studies and history and every fifth in law to only every sixth in philosophy. Researchers in the arts and humanities had much more often than their colleagues from the sciences stayed in Germany for study and research prior to the Humboldt research stay (over 95% in the empirical arts and humanities compared to less than 40% in the theoretical technical sciences) as their area of specialisation often required learning the language and studying original sources or local research subjects. They therefore engaged much more closely with German language and culture than natural and technical scientists but due to the great individuality of their work, they produced not only considerably less joint publications than their apparently more international colleagues but their share of joint publications with German colleagues before and after the research stay was fairly similar (Figure 2).

Figure 2 — Joint publications of Humboldt research fellows and colleagues in Germany, 1981–2000 (Source: Jöns 2007: 107)

For these reasons, internationally co-authored publications are not suitable for evaluating the international attractiveness and orientation of different academic fields, particularly because the complexity of different types of research practices in one and the same discipline makes it difficult to establish typical collaborative cultures against which research output and collaborative linkages could be judged.

On question 3.

This is confirmed when examining continued collaboration with colleagues in Germany after the research stay. The frequency of continued collaboration did not vary significantly between disciplines but the nature of these collaborations differed substantially. Whereas regular collaboration in the natural and technical sciences almost certainly implied the publication of multi-authored articles in internationally peer-reviewed journals, continued interaction in the arts and humanities, and to a lesser extent in the social sciences, often involved activities beyond the co-authorship of journal articles. Table 1 documents some of these less well-documented dimensions of international research collaboration, including contributions to German-language scientific journals and book series as well as refereeing for German students, researchers and the funding agencies themselves.



Table 1 — Activities of visiting researchers in Germany after their research stay (in % of Humboldt research fellows 1954-2000; Source: Jöns 2009: 327)

The differences in both place-specificity and potential for co-authorship in different research practices can be explained by their particular spatial ontology. First, different degrees of materiality and immateriality imply varying spatial relations that result in typical patterns of place-specificity and ubiquity of research practices as well as of individual and collective authorship. Due to the corporeality of researchers, all research practices are to some extent physically embedded and localised. However, researchers working with physically embedded material research objects that might not be moved easily, such as archival material, field sites, certain technical equipment, groups of people and events, may be dependent on accessing a particular site or local research context at least once. Those scientists and scholars, who primarily deal with theories and thoughts, are in turn as mobile as the embodiment of these immaterialities (e.g., collaborators, computers, books) allows them to be. Theoretical work in the natural sciences, including, for example, many types of mathematical research, thus appears to be the most ‘ubiquitous’ subject: Its high share of immaterial thought processes compared to relatively few material resources involved in the process of knowledge production (sometimes only pen and paper) would often make it possible, from the perspective of the researchers, to work in a number of different places (Figure 1, above).

Second, the constitutive elements of research vary according to their degree of standardisation. Standardisation results from the work and agreement previously invested in the classification and transformation of research objects. A high degree of standardisation would mean that the research practice relies on many uniform terms, criteria, formulas and data, components and materials, methods, processes and practices that are generally accepted in the particular field of academic work. Field sites, for example, might initially show no signs of standardisation, whereas laboratory equipment such as test tubes may have been manufactured on the basis of previous – and then standardised – considerations and practices. The field site may be unique, highly standardised laboratory equipment may be found at several sites to which the networks of science have been extended, thereby offering greater flexibility in the choice of the research location. In regard to research practices with a higher degree of immateriality, theoretical practices in the natural and technical sciences show a higher degree of standardisation (e.g., in terms of language) when compared to theoretical and argumentative-interpretative work in the arts and humanities and thus are less place-specific and offer more potential for co-authorship (Figures 1 and 2).

The resulting two dimensional matrix on the spatial relations of different research practices accommodates the empirically observed differences of both the place-specificity of the visiting researchers’ projects and their resulting joint publications with colleagues in Germany (Figure 3):

Figure 3 — A two-dimensional matrix on varying spatial relations of different research practices (Source: Jöns 2007: 109)

Empirical work, showing a high degree of materiality and a low degree of standardisation, is most often dependent on one particular site, followed by argumentative-interpretative work, which is characterised by a similar low degree of standardisation but a higher degree of immateriality. Experimental (laboratory) work, showing a high degree of both materiality and standardisation, can often be conducted in several (laboratory) sites, while theoretical work in the natural sciences, involving both a high degree of immateriality and standardisation is most rarely tied to one particular site. The fewest joint publications were written in argumentative-interpretative work, where a large internal (immaterial) research context and a great variety of arguments from different authors in possibly different languages complicate collaboration on a specific topic. Involving an external (material) and highly standardised research context, the highest frequency of co- and multi-authorship was to be found in experimental (laboratory) work. In short, the more immaterial and standardised the research practice, the lower is the place-specificity of one’s work and the easier it would be to work at home or elsewhere; and the more material and standardised the research practice, the more likely is collaboration through co- and multi-authorship.

Based on this work, it can be concluded – in response to two of Kris Olds’ (2010) key questions – that international research collaboration on a global scale can be mapped – if only roughly – for research practices characterised by co- and multi-authorship in internationally peer-reviewed English language journals as the required data is provided by citation databases (e.g., Wagner and Leydesdorff 2005; Adams et al. 2007; Leydesdorff and Persson 2010; Matthiessen et al. 2010; UNESCO 2010). When interpreting such mapping exercises, however, one needs to keep in mind that the data included in ISI Web of Knowledge, Scopus and Google Scholar do itself vary considerably.

Other research practices require different research methods such as surveys and interviews and thus can only be mapped from specific perspectives such as individual institutions or groups of researchers (for the application of bibliometrics to individual journals in the arts and humanities, see Leydesdorff and Salah 2010). It might be possible to create baseline studies that help to judge the type and volume of research output and international collaboration against typical patterns in a field of research but the presented case study has shown that the significance of specific research locations, of individual and collective authorship, and of different types of transnational collaboration varies not only between academic fields but also between research practices that crisscross conventional disciplinary boundaries.

In the everyday reality of departmental research evaluation this means that in fields such as geography, a possible benchmark of three research papers per year may be easily produced in most fields of physical geography and some fields of human geography (e.g. economic and social) whereas the nature of research practices in historical and cultural geography, for example, might make it difficult to maintain such a high research output over a number of subsequent years. Applying standardised criteria of research evaluation to the great diversity of publication and collaboration cultures inevitably bears the danger of leading to a standardisation of academic knowledge production.

Heike Jöns

References

Adams J, Gurney K and Marshall S 2007 Patterns of international collaboration for the UK and leading partners Evidence Ltd., Leeds

Jöns H 2007 Transnational mobility and the spaces of knowledge production: a comparison of global patterns, motivations and collaborations in different academic fields Social Geography 2 97-114  Accessed 23 September 2010

Jöns H 2009 ‘Brain circulation’ and transnational knowledge networks: studying long-term effects of academic mobility to Germany, 1954–2000 Global Networks 9 315-38

Leydesdorff L and Persson O 2010 Mapping the geography of science: distribution patterns and networks of relations among cities and institutes Journal of the American Society for Information Science & Technology 6 1622-1634

Leydesdorff L and Salah A A A 2010 Maps on the basis of the Arts &Humanities Citation Index: the journals Leonardo and Art Journal, and “Digital Humanities” as a topic Journal of the American Society for Information Science and Technology 61 787-801

Matthiessen C W, Schwarz A W and Find S 2010 World cities of scientific knowledge: systems, networks and potential dynamics. An analysis based on bibliometric indicators Urban Studies 47 1879-97

Olds K 2010 Understanding international research collaboration in the social sciences and humanities GlobalHigherEd 20 July 2010  Accessed 23 September 2010

Paasi A 2005 Globalisation, academic capitalism, and the uneven geographies of international journal publishing spaces Environment and Planning A 37 769-89

UNESCO 2010 World Social Science Report: Knowledge Divides UNESCO, Paris

Wagner C S and Leydesdorff L 2005 Mapping the network of global science: comparing international co-authorships from 1990 to 2000 International Journal of Technology and Globalization 1 185–208


Understanding international research collaboration in the social sciences and humanities

How can we map out and make sense of the changing nature of research collaboration at a global scale? This is an issue many people and institutions are grappling with, with no easy solutions.

As noted in several previous GlobalHigherEd entries:

collaboration between researchers across space is clearly increasing, as well being increasingly sought after. From a sense that ‘global challenges’ like climate change demand collaboration, through to a sense that international collaboration generates higher impact (in a citation impact factor sense) output, there are signs that the pressure to facilitate collaboration will only increase.

At the same time, however, government ministries, funding councils, higher education associations, and universities themselves, are all having a challenging time making sense of the changing nature of research collaboration across space. Common questions include:

  • Can this phenomenon be mapped out, and if so how and at what scales?
  • Can baseline studies be created such that the effects of new international collaborative research programs can be measured?
  • What happens to research practices and collaborative relations when universities join international consortia of universities?

One option is the use of bibliometric technologies to map out the changing nature of research collaboration across space. For example, the international linkages of the Australian Group of Eight (Go8) universities were mapped out (see some sample images below from the report Thomson ISI Go8 NCR dataset: Go8 International Collaborations, available via this University of Sydney website).

Other reports like Science-Metrix’s Scientific Collaboration between Canada and California: A Bibliometric Study (2008) used similar forms of data to understand collaboration between a country and a foreign state. I’ve also seen similar types of bibliometric-reliant reports while participating in discussions at Worldwide University Network (WUN) meetings, as well as on Thomson Reuters’ own website.

Another option is to take an institutionally-specific perspective, though via the acquisition and analysis of a broader array of forms of data. This type of mapping can be developed via bibliometric technologies, researcher surveys, an analysis of travel expense claim data, an analysis of media ‘expertise’ data bases maintained by universities, and so on. This is an oft-desired form of analysis; one designed to feed into central repositories of knowledge (e.g., the University of Notre Dame is developing such a site, tentatively called Global ND). Yet such an approach is challenging and resource consuming to implement.

In the end, for a range of reasons, bibliometrics are often the fallback tool to map out international collaboration. Bibliometrics have their important uses, of course, but they are not effective in capturing the research practices of all research scholars, especially those in the humanities and some arms of the social sciences.

Why? Well the main reason is different disciplines have different publishing practices, an issue funding councils like the Social Sciences and Humanities Research Council of Canada (SSHRC), or European agencies (including DFG, ESRC, AHRC, NWO, ANR and ESF) have recently been exploring. See for example, this March 2010 ESF report (Towards a Bibliometric Database for the Social Sciences and Humanities – A European Scoping Project), or Bibliometric Analysis of Research Supported by SSHRC: Design Study (March 2009) – a report for SSHRC by Science-Metrix.

If we go down the mapping route and rely too heavily upon bibliometrics, do we risk of letting the limitations of Thomson Reuters’ ISI Web of Knowledge, or the Scopus database, slowly and subtly create understandings of international collaboration that erase from view some very important researcher-to-researcher collaborations in the humanities, as well as some of the social sciences? Perhaps so, perhaps not!

In this context I am in search of some assistance.

If you or your colleagues have developed some insightful ways to map out international research collaboration patterns and trends in the social sciences and humanities, whatever the scale, please fill me in via <kolds@wisc.edu> or via the comments section below. Or one alternative response is to reject the whole idea of mapping, bibliometrics, and so on, and its associated managerialism. In any case, following a compilation of responses, and some additional research, I’ll share the findings via a follow-up entry in late August.

Thank you!

Kris Olds

Graphic feed: NSF’s cyber-network expands and connects half the globe

gloriad1_h

gloriad3_h

October 14, 2009

The National Science Foundation (NSF)-funded Taj network has expanded to the Global Ring Network for Advanced Application Development (GLORIAD), wrapping another ring of light around the northern hemisphere for science and education. Taj now connects India, Singapore, Vietnam and Egypt to the GLORIAD global infrastructure and dramatically improves existfing U.S. network links with China and the Nordic region.

Taj promises far-reaching, stimulative and sustainable benefits in global research and education (R&E) collaboration. It will serve every knowledge disciplines from high energy physics, atmospheric and climate change science, to renewable energy research, to nuclear nonproliferation, genomics and medicine, economics and history. The population of countries served by the NSF-sponsored GLORIAD program, funded since 1997, now exceeds half the globe.

In a unique public/private partnership with NSF, Tata Communications is providing a new billion bits per second (Gbps) service connecting science and education exchange points in Hong Kong, Singapore, Alexandria, Mumbai, Amsterdam and Copenhagen (valued at $6 million) to interconnect vital national research and education networks in India and across Southeast Asia, including Singapore and Vietnam.

The new exchange point in Alexandria, Egypt affords new possibilities for science and education ties throughout the Middle East, Africa and Central Asia and the Caucasus regions. Taj opens up new horizons for U.S. scientists, educators and students, enabling direct access to key research facilities in India, and, through new exchange points in Egypt and Singapore, improved connectivity for potentially millions of end-users conducting international collaborative research….  [Link here for the full press release]

Source: National Science Foundation, NSF’s Cyber-Network Now Expands Across the Northern Hemisphere and Connects Half the Globe, Press Release 09-200.

HUBzero cyberinfrastructure for scientific collaboration

Over the next several months we will be exploring various aspects of international research collaboration. For example, a new entry on the EU’s new international science and technology cooperation framework will be posted shortly.*  We will also identify some new(ish) technologies that enable collaboration between geographically dispersed researchers and research teams.

hubzerologoPurdue University’s HUBzero, developed with National Science Foundation (NSF) support (via the multi-university Network for Computational Nanotechnology), is an example of one such technology. My university just posted news of a seminar on HUBzero.  I’ll report back in December after the event has been held.  For now, though, note that:

HUBzero™ allows you to create dynamic web sites that connect a community in scientific research and educational activities. HUBzero™ sites combine powerful Web 2.0 concepts with a middleware that provides instant access to interactive simulation tools. These tools are not just Java applets, but real research codes that can access TeraGrid, the Open Science Grid, and other national Grid computing resources for extra cycles.

This 4m15s video provides a summary of what HUBzero has to offer:

A high resolution version is available here.

See here for further information on HUBzero. It is important to note that hubs are “web-based collaboration environments” with the following features:

  • Interactive simulation tools, hosted on the hub cluster and delivered to your browser
  • Simulation tool development area, including source code control and bug tracking
  • Animated presentations delivered in a light-weight, Flash-based format
  • Mechanism for uploading and sharing resources
  • 5-star ratings and user feedback for resources
  • User support area, with question-and-answer forum
  • Statistics about users and usage patterns

Sample “hubs” include, according to HUBzero:

This document* outlines costs and details to establish a hub using this technology.

* McLennan, Michael (2008), “The Hub Concept for Scientific Collaboration,” http://hubzero.org/resources/12

Kris Olds

* Note: see ‘Europe’s new Strategic Framework for International Science and Technology Cooperation’