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Regional Science Diplomacy in an Era of Geopolitical Realignment and Strategic Competition:
The Eastern Mediterranean – Middle East Region as a Case Study
Costas N. Papanicolas
1. Introduction: Science Diplomacy in a Structural Geopolitical Transition
Science diplomacy has traditionally been understood as a facilitative instrument — a means of sustaining dialogue, maintaining scientific exchange, and preserving channels of cooperation even in periods of political tension. In the present international context, however, its role is undergoing a structural transformation. Science, technology and innovation (STI) are no longer simply drivers of economic growth or societal progress; they have become central determinants of geopolitical influence, regulatory authority, energy security and long-term strategic positioning.
The global environment is marked by intensifying strategic rivalry, particularly between the United States and China. This rivalry is not confined to military postures or trade balances. It is increasingly centred on technological ecosystems, semiconductor supply chains, artificial intelligence platforms, digital infrastructures, quantum capabilities, space systems and standards-setting processes. Control over these domains shapes not only economic competitiveness but also security architectures and global alignments.
Simultaneously, climate change operates as a systemic multiplier of instability. It interacts with water scarcity, food systems, migration pressures, urban resilience and energy infrastructures. The energy transition — from fossil fuel dependence toward electrification, renewable integration and storage systems — is deeply embedded in geopolitical calculation. Access to critical raw materials, manufacturing capacity for renewable technologies, hydrogen corridors and interconnection infrastructures now intersects directly with foreign policy and strategic autonomy.
In such an environment, science diplomacy must evolve from a symbolic or supplementary activity into a structurally embedded component of strategic engagement. Its most consequential expression may not lie exclusively in global multilateral forums, but at the regional level, where systemic risks and geopolitical pressures converge in concrete and immediate ways.
This paper examines regional science diplomacy within this broader structural transition, using the Eastern Mediterranean and Middle East (EMME) as an illustrative case. The region represents a convergence zone of climate stress, hydrocarbon resources, renewable potential and complex political relations. The Eastern Mediterranean and Middle East Climate Change Initiative (EMME-CCI) provides an operational example of how structured, science-anchored cooperation can function in politically sensitive environments. The experience offers lessons relevant to Europe’s evolving strategic posture and to the external dimension of the European Research Area (ERA).
2. Geopolitical Realignment and the Securitisation of Technology
The intensifying rivalry between major powers reflects a deeper transformation of the technological order. Advanced technologies are increasingly securitised. Export controls, industrial subsidies, investment screening mechanisms and technology alliances illustrate that innovation capacity is now treated as a determinant of long-term strategic leverage. Semiconductor fabrication, advanced manufacturing, AI training capacity, quantum communication and satellite-based navigation systems are embedded in national security frameworks.
This securitisation reshapes multilateral cooperation. Institutions developed in a period of technological openness now operate in a context of strategic hedging and partial decoupling. Supply chains are reassessed through the lens of resilience. Standards-setting processes become arenas of influence. Regulatory frameworks carry geopolitical weight.
The European Union occupies a distinctive position within this evolving order. It is not structured as a centralised technological superpower; nor does it rely on a single industrial model. Its strength lies in networked excellence, regulatory coherence and institutional density. The concept of “open strategic autonomy” reflects an attempt to reconcile resilience with principled engagement. It implies reinforcing internal research and innovation capacities while sustaining structured international cooperation.
Europe’s comparative advantages are structural. They include advanced research infrastructures — high-performance computing facilities, Copernicus Earth observation systems, cross-border data platforms — and a dense network of universities and research centres. They also include regulatory credibility and a normative framework grounded in democratic governance and scientific freedom. These features position Europe uniquely in the domain of science diplomacy. It can offer analytical capability and institutional reliability without coercive leverage.
In this setting, science diplomacy becomes part of Europe’s strategic architecture. It links excellence, infrastructure capability and principled engagement in a manner that supports both resilience and cooperation.
3. Climate Change and the Energy–Technology Nexus
Climate change amplifies the structural pressures generated by technological competition. Environmental stress intersects with economic vulnerability and political fragility. Rising temperatures, water scarcity, biodiversity loss and extreme weather events interact with demographic pressures and urbanisation. Climate adaptation and mitigation strategies therefore cannot be separated from broader strategic considerations.
The energy transition lies at the centre of this nexus. Fossil fuel dependence is being reassessed in light of climate objectives and geopolitical vulnerability. Renewable energy deployment, grid integration, energy storage and hydrogen production are not merely technological transitions; they reshape trade patterns, infrastructure corridors and industrial policy.
Access to critical raw materials — lithium, cobalt, rare earth elements — intersects with geopolitical competition. Manufacturing capacity for solar panels, wind turbines, batteries and electrolysers influences global supply chains. Energy interconnectivity, including cross-border grids and maritime transport routes, acquires strategic significance.
For Europe, the energy–climate–technology nexus is particularly salient. The transition toward decarbonisation must occur in parallel with the reinforcement of resilience in neighbouring regions. Instability in adjacent regions can undermine both energy security and climate objectives. This interdependence highlights the importance of structured regional engagement grounded in scientific assessment and institutional design.
4. The Regional Scale as Strategic Interface
Global competition is articulated through regional theatres. Neighbouring regions become interfaces where technological standards, energy systems, environmental stress and political complexity intersect.
The regional scale is analytically and strategically significant for several reasons.
First, systemic environmental risks are geographically concentrated yet transboundary. Effective climate modelling, water management and adaptation planning require coordinated regional assessment.
Second, energy infrastructures are regionally embedded. Hydrocarbon reserves, renewable corridors, grid interconnections and maritime routes create interdependencies that extend beyond national borders.
Third, political alignment in neighbouring regions is often partial or fragile. Traditional diplomatic frameworks may be limited. Structured science-based cooperation can operate in technically defined domains, creating bounded spaces of collaboration even where political convergence is incomplete.
Regional science diplomacy thus serves as a stabilising mechanism. It structures cooperation around shared evidence and technical necessity rather than geopolitical alignment. In a fragmented international environment, such structured engagement acquires strategic value.
5. The Eastern Mediterranean and Middle East: Climate, Energy and Political Complexity
The Eastern Mediterranean and Middle East embodies the convergence of climate stress, energy geopolitics and institutional asymmetry.
Climatically, the region is experiencing accelerated warming and increasing hydrological stress. Agricultural productivity, urban resilience and coastal stability are under pressure. These dynamics carry socio-economic implications, including migration pressures and public health challenges.
Energy-wise, the region holds substantial oil and natural gas reserves. It remains an important contributor to current global energy markets. Simultaneously, it possesses exceptional solar irradiation potential, positioning it as a candidate for large-scale photovoltaic deployment and green hydrogen production. The region thus stands at the intersection of current hydrocarbon dependence and future renewable transition.
Politically, the region is characterised by diverse alignments and complex diplomatic relations. Formal cooperation frameworks may be constrained, yet shared environmental and energy challenges persist.
For Europe, the EMME region is strategically adjacent. Developments in the region affect energy diversification strategies, maritime connectivity, environmental stability and broader resilience. Engagement through structured science diplomacy aligns with Europe’s long-term interests without requiring political alignment in all domains.
6. The EMME-CCI: Sequencing, Governance and De-Risking
The Eastern Mediterranean and Middle East Climate Change Initiative (EMME-CCI) was conceived as a science-driven platform aimed at developing a Regional Action Plan grounded in rigorous multidisciplinary assessment. Its design incorporated several key principles relevant to science diplomacy.
First, sequencing. The initiative prioritised scientific assessment before political negotiation. By anchoring cooperation in shared modelling and impact analysis, it created a common analytical language across diverse participants. Supercomputing resources and satellite-based Earth observation systems supported integrated climate projections and sectoral impact assessments. Shared access to advanced analytical capacity reduced contestation over evidence.
Second, federated governance. The initiative adopted a flexible framework allowing variable geometry participation. Cooperation could proceed in specific thematic domains without requiring uniform political alignment. Structured working groups and transparent reporting mechanisms provided predictability.
Third, institutional redundancy. Multiple thematic entry points and technical layers reduced vulnerability to political disruption. If cooperation encountered obstacles in one area, progress could continue in others.
Fourth, de-risking through governance. The initiative transformed diffuse political uncertainty into structured engagement governed by defined procedures. Governance design itself became a stabilising instrument.
Capability-sharing — including modelling infrastructure and Earth observation data — functioned as a tangible diplomatic asset. Access to analytical tools reduced asymmetries and fostered collective ownership of findings.
The convening of a Heads of State meeting at COP27 demonstrated that science-based regional cooperation can attain political recognition while maintaining technical integrity. Importantly, the initiative complemented diplomatic channels rather than replacing them.
7. Embedding Regional Science Diplomacy within the ERA
The experience of the EMME-CCI suggests that regional science diplomacy can be embedded within Europe’s strategic and institutional architecture.
The ERA’s external dimension offers a framework through which advanced infrastructures can support structured engagement in neighbouring regions. High-performance computing facilities, Copernicus Earth observation systems and cross-border data platforms are strategic assets. Their role extends beyond internal research excellence; they can underpin cooperative resilience.
Embedding science diplomacy coherently requires alignment between research policy, neighbourhood policy and external engagement instruments. This does not necessitate new grand institutional structures. It requires coherence in sequencing, governance design and capability-sharing mechanisms.
Infrastructure diplomacy — structured access to analytical capability and data platforms — can strengthen partnerships in neighbouring regions. Governance transfer — sharing institutional design principles such as federated flexibility and scientific anchoring — can support durable cooperation.
Strategic embedding also implies recognising science diplomacy as cross-cutting. It intersects with energy transition strategies, climate adaptation funding mechanisms and regulatory alignment processes. A coherent approach enhances Europe’s capacity to act predictably and constructively in its neighbourhood.
8. Strategic Lessons and Policy Implications
Several broader lessons emerge.
Science diplomacy must be institutional rather than episodic. Sustained platforms anchored in rigorous assessment provide continuity and cumulative trust.
Capability-sharing is central. Access to modelling infrastructure and analytical expertise reduces asymmetry and strengthens shared ownership.
Governance design is strategic. Federated flexibility, institutional redundancy and sequencing reduce political risk.
Regional engagement complements global multilateralism by addressing geographically concentrated risks.
For Europe, aligning the ERA’s external dimension with structured regional science diplomacy enhances strategic coherence without undermining openness.
9. Concluding Perspective
In an era defined by geopolitical realignment and technological competition, science diplomacy must be understood as a structural component of strategic engagement. When grounded in excellence, supported by advanced infrastructures and embedded in thoughtful governance, it links climate action, energy transition and regional stability.
The experience of the Eastern Mediterranean and Middle East illustrates that regional science diplomacy can operate within complex political environments while addressing shared systemic risks. Such experiences contribute to Europe’s evolving reflection on how science diplomacy may be integrated coherently within its broader strategic posture in neighbouring regions.
About the Author:
Prof. Costas N. Papanicolas is the Founding President and President Emeritus of the Cyprus Institute. He holds Physics degrees (B.Sc., Ph.D.) from MIT and served as Special Envoy on Climate Change for the Government of Cyprus (2018–2023). He is currently Scientific Director of the Eastern Mediterranean & Middle East Climate Initiative. A fellow of several academies, he has received international honors for his contributions to science, education, and policy, with awards from China, Cyprus, France, Greece, Italy, Portugal and the United States.
