ArticlePDF Available

Perspectives on funding structures, cross-cultural collaboration and institutional support needed to support the next generation of convergence climate scientists

PLOS
PLOS Climate
Authors:
OPINION
Perspectives on funding structures, cross-
cultural collaboration and institutional
support needed to support the next
generation of convergence climate scientists
Dylan BlaskeyID
1
*, Louise Mercer
2
, Fleur van Crimpen
3
, E
´lise Devoie
4
1Department of Civil, Environmental, and Architectural Engineering, University of Colorado Boulder,
Boulder, Colorado, United States of America, 2Department of Geography and Environmental Sciences,
Northumbria University, Newcastle upon Tyne, United Kingdom, 3Faculty of Science, Vrije Universiteit
Amsterdam, Amsterdam, Netherlands, 4Department of Civil Engineering, Queen’s University, Kingston,
Canada
*dylan.blaskey@colorado.edu
Introduction
Climate change presents interrelated ecological, social, economic, and political challenges.
Successful adaptation and resiliency efforts require convergent research: an integrative
approach that transcends disciplinary boundaries and brings together expertise from across
diverse disciplines, nations, cultures, and knowledge systems [1]. Convergent research has
emerged as an avenue to facilitate holistic insight into the rapid environmental changes in the
Arctic, their ramifications on socio-ecological systems, and the formulation of sustainable mit-
igation strategies [2]. Given the emerging interest in convergent research approaches that
include Indigenous communities by funding agencies [3], there is a need to identify necessary
support required for Early Career Researchers (ECRs) to use these approaches. We, a collective
of Arctic Early Career natural scientists, shed light on challenges inherent in this evolving
landscape. Drawing from our diverse experiences of working in distinct cultural and disciplin-
ary contexts, we explore the challenges posed by funding structures, institutional support, and
disciplinary boundaries in fostering the next generation of convergent scientists.
Reimagining graduate and postgraduate funding
Current funding structures dictate the research topics, practices, and methods applied. This
funding often aligns closely with the scientific research priorities or “novel research” of interest
to the funding agency and not the communities. Though stable and well-established, this sys-
tem limits the novelty and innovation possible in studies that deviate from the western, time-
bound, and disciplinary-siloed scientific method [4].
Indigenous Peoples’ have been the stewards of Arctic regions for millennia, the spirit, his-
tory, meaning, balance, and care for these lands are embedded in their cultural codes and sto-
ries [5,6]. Failure to acknowledge this wealth of knowledge overlooks the socio-ecological
changes in a broader temporal and environmental context. Many solutions can be drawn from
Indigenous traditions [7]. Long-term relationship development between researchers and
Indigenous communities is essential for the establishment of research projects that address
community research priorities and facilitate two-way knowledge transfer [8]. This requires
time spent in communities (Fig 1) which often conflicts with the time-bound deliverables
PLOS CLIMATE
PLOS Climate | https://doi.org/10.1371/journal.pclm.0000330 January 3, 2024 1 / 5
a1111111111
a1111111111
a1111111111
a1111111111
a1111111111
OPEN ACCESS
Citation: Blaskey D, Mercer L, van Crimpen F,
Devoie E
´(2024) Perspectives on funding
structures, cross-cultural collaboration and
institutional support needed to support the next
generation of convergence climate scientists. PLOS
Clim 3(1): e0000330. https://doi.org/10.1371/
journal.pclm.0000330
Editor: Jamie Males, PLOS Climate, UNITED
KINGDOM
Published: January 3, 2024
Copyright: ©2024 Blaskey et al. This is an open
access article distributed under the terms of the
Creative Commons Attribution License, which
permits unrestricted use, distribution, and
reproduction in any medium, provided the original
author and source are credited.
Funding: The authors received no specific funding
for this work.
Competing interests: The authors have declared
that no competing interests exist.
required by funding agencies and academic programs. Students who are expected to undertake
cross-cultural collaborative work must be provided with adequate financial support and train-
ing (Fig 1) to build relationships on a foundation of trust and reciprocity and sustain partner-
ships beyond project timescales.
Both political and disciplinary boundaries limit convergent research essential for incorpo-
rating diverse ways of knowing into research outcomes. A critical aspect of successful
Fig 1. Sufficient and targeted funding, dedicated time, and comprehensive training are needed to support the next generation of convergence climate
scientists who will keep collaborative partnerships at the core of their research.
https://doi.org/10.1371/journal.pclm.0000330.g001
PLOS CLIMATE
PLOS Climate | https://doi.org/10.1371/journal.pclm.0000330 January 3, 2024 2 / 5
international convergence collaboration is the provision of funding mechanisms that support
the mobility of researchers, particularly ECRs, enabling them to extend their stays at partner
institutions or within communities where they work [9]. Supporting convergence research
requires innovative funding sources that transcend cultural, disciplinary, and political
boundaries.
Transforming higher education and community engagement
Institutions must continue to increase representation of Indigenous students and faculty. The
creation of welcoming spaces to retain and promote Indigenous scholars requires changes to
university policies to acknowledge and promote diverse ways of Knowing and teaching. Learn-
ing from many movements aimed to engage Black scholars, recruiting is a simple first step, but
fostering an environment that promotes growth and a sense of belonging is an entirely differ-
ent matter [10].
Including Indigenous research partners requires universities to shift from promotion and
tenure systems that predominantly value disciplinary outputs to acknowledge the temporal
demands and societal benefits inherent in convergent research [11]. For successful training in
community partnership, students require opportunities to design and implement research
plans collaboratively with communities. During graduate and postgraduate projects, time
spent listening and learning from communities can result in concerns surrounding project
progress and ethical guidelines. Overcoming these obstacles necessitates intentional integra-
tion of ECRs into advisors’ networks in Indigenous communities from the onset of programs.
In practice this could include repeated community visits that last more than a few days to help
facilitate lasting relationships (Fig 1).
Developing boundary-spanning skills for impactful convergence
research
Graduate and postgraduate curricula successfully train students with conventional scientific
skills necessary for completing scientific research, while the soft skills necessary for participat-
ing in boundary-spanning projects are neglected [12]. Our collective experiences, rooted in
physical science backgrounds with varying degrees of social science, underscore the scarcity of
intentional teaching of these vital soft skills. Topics such as cultural awareness, community
relationship building, policy-oriented writing, and interdisciplinary collaboration hardly
receive attention. ECRs need to be adequately equipped with the necessary tools for effective
convergence research [13], including the development of these soft skills, as well as an
improved understanding of the histories that divide cultures [14].
A focus on socio-ecological impacts of climate change in the Arctic requires understanding
the historical dynamics between Indigenous Peoples’ and Western scientists. While some uni-
versities offer training to support basic understanding of the social and political context in
which Arctic research is situated, graduate students rarely have opportunities for comprehen-
sive training. Training should empower ECRs to navigate the intricate socio-ecological land-
scape of the Arctic and communicate their findings effectively across disciplines and broader
audiences. With sufficient training, ECR’s will be placed in a position to improve cross-disci-
plinary and cross-cultural collaboration feeding into convergent research processes (Fig 1).
Conclusion
Convergent research is poised to disentangle the intricacies of Arctic climate change and pro-
vide solutions with global resonance. As ECRs working in the Arctic, we raise a collective call
to action, urging transformative changes to research funding, institutional support, and
PLOS CLIMATE
PLOS Climate | https://doi.org/10.1371/journal.pclm.0000330 January 3, 2024 3 / 5
training to better support convergent research approaches. In a world where the boundaries
between disciplines are fluid and global challenges require multifaceted solutions that draw
from diverse knowledge systems, universities and funding organizations have a pivotal role to
play in nurturing the growth of convergent scientists. Fostering a culture of cross-cultural/dis-
ciplinary collaboration, providing training in soft skills, and adapting promotion and tenure
systems to recognize the value of convergent research are just some of the crucial steps for-
ward. Together we can make the transformative changes needed to address climate change
and create a more sustainable and equitable future.
Author Contributions
Conceptualization: Dylan Blaskey, Louise Mercer.
Formal analysis: Dylan Blaskey, Louise Mercer, Fleur van Crimpen, E
´lise Devoie.
Project administration: Dylan Blaskey, Louise Mercer.
Visualization: Louise Mercer, Fleur van Crimpen.
Writing original draft: Dylan Blaskey.
Writing review & editing: Dylan Blaskey, Fleur van Crimpen, E
´lise Devoie.
References
1. Scoones I, Stirling A, Abrol D, Atela J, Charli-Joseph L, Eakin H, et al. Transformations to sustainability:
combining structural, systemic and enabling approaches. Current Opinion in Environmental Sustainabil-
ity. 2020 Feb 1; 42:65–75.
2. Angeler DG, Allen CR, Carnaval A. Convergence science in the Anthropocene: navigating the known
and unknown. People and Nature. 2020 Mar; 2(1):96–102.
3. National Science Foundation. Growing Convergence Research (GCR). The National Science Founda-
tion. 2019 May 8 [Cited 2023 August 8]. Available from: https://nsf.gov/pubs/2019/nsf19551/nsf19551.
htm.
4. Zoller U, Scholz RW. The HOCS paradigm shift from disciplinary knowledge (LOCS)-to interdisciplinary
evaluative, system thinking (HOCS): what should it take in science-technology-environment-society ori-
ented courses, curricula and assessment?. Water Science and Technology. 2004 Apr 1; 49(8):27–36.
PMID: 15193091
5. Cameron L, Courchene D, Ijaz S, Mauro I. ‘A change of heart’: Indigenous perspectives from the Onji-
say Aki Summit on climate change. Climatic Change. 2021 Feb; 164:1–21. https://doi.org/10.1007/
s10584-021-03000-8 PMID: 33642656
6. Wong C, Ballegooyen K, Ignace L, Johnson MJ, Swanson H. Towards reconciliation: 10 Calls to Action
to natural scientists working in Canada. Facets. 2020 Oct 1; 5(1):769–83.
7. Joseph B. Seventh Generation Principle [Internet]. ICT Inc. 2020 May 30 [Cited 2023 November 15].
Available from:https://www.ictinc.ca/blog/seventh-generation-principle#:~:text=The%20Seventh%
20Generation%20Principle%20is,seven%20generations%20into%20the%20future.
8. Mercer L, Whalen D, Pokiak DL, Lim M, Mann PJ. Ensuring continuity and impact in Arctic monitoring: a
solution-orientated model for community-based environmental research. Environmental Research:
Ecology. 2023 Nov 2; 2(4):045001.
9. Ernakovich JG, Eklund N, Varner RK, Kirchner N, Jeuring J, Duderstadt K, et al. Is a common goal a
false hope in convergence research?: Opportunities and challenges of international convergence
research to address Arctic change. Earth’s Future. 2021 May; 9(5):e2020EF001865.
10. Nurius PS, Kemp SP. Individual-level competencies for team collaboration with cross-disciplinary
researchers and stakeholders. Strategies for team science success: Handbook of evidence-based prin-
ciples for cross-disciplinary science and practical lessons learned from health researchers. 2019:171–
87.
11. Jaeger-Erben M, Kramm J, Sonnberger M, Vo
¨lker C, Albert C, Graf A, et al. Building capacities for
transdisciplinary research: Challenges and recommendations for early-career researchers. GAIA-Eco-
logical Perspectives for Science and Society. 2018 Jan 1; 27(4):379–86.
PLOS CLIMATE
PLOS Climate | https://doi.org/10.1371/journal.pclm.0000330 January 3, 2024 4 / 5
12. Colomer J, Serra T, Cañabate D, Bubnys R. Reflective learning in higher education: Active methodolo-
gies for transformative practices. Sustainability. 2020 May 8; 12(9):3827.
13. Carlin AP. De-classrooming: Moving learning outside the classroom. PRISM: Casting New Light on
Learning, Theory and Practice. 2020 Jul 19; 3(1):68–80.
14. Mercer L, Ovitz K. Shifting from capacity building to capacity sharing in Arctic research: Considering
transformative shifts in collaborative research at the ArcticNet Annual Scientific Meeting. The Polar
Journal. 2023 Jan 2; 13(1):172–6.
PLOS CLIMATE
PLOS Climate | https://doi.org/10.1371/journal.pclm.0000330 January 3, 2024 5 / 5
ResearchGate has not been able to resolve any citations for this publication.
Article
Full-text available
Community-Based Monitoring (CBM) is increasingly cited as a means of collecting valuable baseline data that can contribute to our understanding of environmental change whilst supporting Indigenous governance and self-determination in research. However, current environmental CBM models have specific limitations that impact program effectiveness and the progression of research stages beyond data collection. Here, we highlight key aspects that limit the progression of Arctic CBM programs which include funding constraints, organisational structures, and operational processes. Exemplars from collaborative environmental research conducted in the acutely climate change impacted Hamlet of Tuktoyaktuk, Inuvialuit Settlement Region, Canada, are used to identify co-developed solutions to address these challenges. These learnings from experience-based collaborations feed into a new solution-orientated model of environmental Community-Based Research (CBR) that emphasises continuity between and community ownership in all research stages to enable a more complete research workflow. Clear recommendations are provided to develop a more coherent approach to achieving this model, which can be adapted to guide the development of successful environmental CBR programs in different research and place-based contexts.
Article
Full-text available
The Arctic faces multiple pressures including climate change, shifting demographics, human health risks, social justice imbalances, governance issues, and expanding resource extraction. A convergence of academic disciplines—such as natural and social sciences, engineering and technology, health and medicine—and international perspectives is required to meaningfully contribute to solving the challenges of Arctic peoples and ecosystems. However, successfully carrying out convergent, international research and education remains a challenge. Here, lessons from the planning phase of a convergence research project concerned with the health of Arctic waters developed by the Arctic Science IntegrAtion Quest (ASIAQ) are discussed. We discuss our perspective on the challenges, as well as strategies for success, in convergence research as gained from the ASIAQ project which assembled an international consortium of researchers from disparate disciplines representing six universities from four countries (Sweden, Japan, Russia, and the United States) during 2018–2020.
Article
Full-text available
In June 2017, the Turtle Lodge Indigenous knowledge centre convened the Onjisay Aki International Climate Summit, an unparalleled opportunity for cross-cultural dialogue on climate change with environmental leaders and Indigenous Knowledge Keepers from 14 Nations around the world. In collaboration with Turtle Lodge, the Prairie Climate Centre was invited to support the documentation and communication of knowledge shared at the Summit. This process of Indigenous-led community-based research took an inter-epistemological approach, using roundtable discussions within a ceremonial context and collaborative written and video methods. The Summit brought forward an understanding of climate change as a symptom of a much larger problem with how colonialism has altered the human condition. The Knowledge Keepers suggested that, in order to effectively address climate change, humanity needs a shift in values and behaviours that ground our collective existence in a balanced relationship with the natural world and its laws. They emphasized that their diverse knowledges and traditions can provide inspiration and guidance for this cultural shift. This underscores the need for a new approach to engaging with Indigenous knowledge in climate research, which acknowledges it not only as a source of environmental observations, but a wealth of values, philosophies, and worldviews which can inform and guide action and research more broadly. In this light, Onjisay Aki makes significant contributions to the literature on Indigenous knowledge on climate change in Canada and internationally, as well as the ways in which this knowledge is gathered, documented, and shared through the leadership of the Knowledge Keepers. Supplementary information: The online version contains supplementary material available at 10.1007/s10584-021-03000-8.
Article
Full-text available
In 2015, after documenting testimonies from Indigenous survivors of the residential school system in Canada, the Truth and Reconciliation Commission released 94 Calls to Action to enable reconciliation between Indigenous and non-Indigenous Canadians. Without personal connections to Indigenous communities, many Canadians fail to grasp the depth of intergenerational impacts of residential schools and associated systemic racism. Consequently, reconciliation remains an elusive concept. Here we outline 10 Calls to Action to natural scientists to enable reconciliation in their work. We focus on natural scientists because a common connection to the land should tie the social license of natural scientists more closely to Indigenous communities than currently exists. We also focus on natural sciences because of the underrepresentation of Indigenous peoples in this field. We draw on existing guidelines and our experiences in northern Canada. Our 10 Calls to Action are triggered by frustration. The authors have witnessed examples where natural scientists treat Indigenous communities with blatant disrespect or with ignorance of Indigenous rights. These 10 Calls to Action challenge the scientific community to recognize that reconciliation requires a new way of conducting natural science, one that includes and respects Indigenous communities, rights, and knowledge leading to better scientific and community outcomes.
Article
Full-text available
This paper reflects on a teaching problem highlighted as part of a second-year undergraduate module in sociology, taught at a UK based institution of higher education. The specific teaching problem – that of student learning as encountered and revealed in seminars – was nested within other issues; some of which related to the characteristics of the discipline of sociology itself, whilst others, related to more localised issues such as the choice of materials available for students to access and download. Whilst the lecture and course material was fixed, the flexibility of the seminar framework enabled the exploration and implementation of an ad hoc intervention in the form of ‘de-classrooming’. This intervention was utilised and developed to enhance the knowledge base and conceptual understanding of the student cohort in relation to “Everyday Life” sociology. The ‘de-classrooming’ intervention proved to be an efficacious pedagogic device, which facilitated dynamic levels of flexibility and creativity by both teacher and learners. As a pedagogic device, it manifested a number of key benefits: such as aiding the clarification of conceptual confusions. Ultimately, the de-classrooming intervention operated to establish an empowered sense of ownership where knowledge and knowledge-generation were concerned, and afforded students unorthodox opportunities for learning enhancement.
Article
Full-text available
In this Special Issue, Reflective Learning in Higher Education explores on tertiary education and its practices. It looks at in-house and external individuals, and collective initiatives and activities that centre on generating and reflecting on knowledge. It also explores the transformation output of learning communities, the communities themselves and their reflective practices, and discusses how reflective learning and developing one’s professional identity through reflection are linked. The connections between the theoretical and applied research on reflective practices, knowledge generation in all areas, professional practice and identity through theoretical definition, situated and grounded practice and transformative knowledge are also considered. The nine manuscripts in this Special Issue manifest that reflective learning is likely to (i) help forge students’ professional identity and ensure sustainable competences are effectively developed, (ii) transform students’ preconceived perspectives and social preferences to foster new reasoned action plans for decision-making, (iii) promote understanding one’s personal professional strengths and limitations and develop the ability to identify resources and ways to solve existing and/or future professional challenges and (iv) modify the students’ beliefs, attitudes, and daily behaviour to develop competences that will ultimately result in promoting sustainability.
Article
Full-text available
Rapidly changing ecological and social systems currently pose significant societal challenges. Navigating the complexity of social‐ecological change requires approaches able to cope with, and potentially solve, both foreseen and unforeseen societal challenges. The emergent field of convergence addresses the intricacies of such challenges, and is thus relevant to a broad range of interdisciplinary issues. This paper suggests a way to conceptualize convergence research. It discusses how it relates to two major societal challenges (adaptation, transformation), and to the generation of policy‐relevant science. It also points out limitations to the further development of convergence research. A free Plain Language Summary can be found within the Supporting Information of this article.
Article
The imperatives of environmental sustainability, poverty alleviation and social justice (partially codified in the Sustainable Development Goals or SDGs) call for ambitious societal transformations. As such, few aspects of actionable knowledge for sustainability are more crucial than those concerning the processes of transformation. This article offers a brief overview of different conceptualisations of transformation, and outlines a set of practical principles for effective research and action towards sustainability. We review three approaches to transformations, labelled: ‘structural’, ‘systemic’ and ‘enabling’. We show how different ways of understanding what we mean by transformations can affect what actions follow. But these approaches are not mutually exclusive. We use an international set of examples on low carbon economy transformations, seed systems, wetland conservation and peri-urban development to show how they can be complementary and reinforcing. We describe three cross-cutting practical considerations that must be taken seriously for effective transformations to sustainability: diverse knowledges, plural pathways and the essentially political nature of transformation. Realizing the ambitions of the SDGs, we conclude, requires being clear about what we mean by transformation, and recognizing these basic methodological principles for action.
Chapter
Cross-disciplinary social, behavioral health, and environmental research teams are commonly composed of individuals who contribute distinctive discipline- or field-based skills and knowledge to the team’s collective work. Yet other individual-level attributes also influence team success, interacting with the scientific work of the team and shaping engagement with other stakeholders. An understanding of individual-level factors is thus critical to the success of cross-disciplinary science teams, informing important decisions about team composition, training, coaching, facilitation, and management of differences and conflict. This chapter discusses the value of “T-shaped” disciplinary and cross-disciplinary preparation. We then describe four interrelated domains—individual-level values, attitudes, knowledge, skills, and habits of mind—relevant to the process and success of cross-disciplinary scientific and stakeholder collaborations.