Asia

The military operations that unfolded over twelve days in June 2025 between Iran and Israel marked a sharp breakpoint in the trajectory of regional military balance. The confrontation resulted in a substantial erosion of Tehran’s military infrastructure and inflicted significant material losses. The depth of this operational failure was most evident in the near-total collapse of Iran’s integrated air-defence system, with confirmed intelligence assessments indicating that Israel succeeded in neutralising more than 80 surface-to-air missile batteries and destroying over 120 launch platforms. This effectively stripped Iranian airspace of its protective shield and imposed a state of absolute Israeli air superiority.   Amid this collapse, Tehran effectively lost its entire arsenal of the Russian-made S-300PMU2 (“S-300 PMU-2”) systems, which it had acquired in 2016 after protracted negotiations and at considerable financial cost. These systems were systematically destroyed between 2024 and 2025. Iran’s domestic air-defence industries, represented by the Bavar-373 and Khordad-15 systems, also demonstrated clear operational inadequacy when tested in a real combat environment.   This exposed a wide technological gap between Israel’s offensive capabilities and Iran’s defensive assets. The Iranian air-defence network failed to record the downing of a single manned Israeli fighter jet, and Iran’s ageing air force, reliant on pre-revolution legacy aircraft such as the F-14 Tomcat, the Phantom, and the Tiger, supplemented by 1990s-era MiG-29s, stood incapable of competing or deterring effectively.   This total inability to contest the battlespace not only underscored tactical failure but delivered a decisive blow to the strategic assumptions underpinning Iran’s defence doctrine for decades, particularly its reliance on “asymmetric missile deterrence” and hybrid layered-defence networks.   Confronted with a reality in which its missile capabilities were neutralised and its aerial shield dismantled, the Iranian leadership was compelled to adopt a “post-war reset” strategy, launching an urgent acquisition campaign aimed at closing the technological gap by turning eastward towards Russia and China to rebuild its lost deterrence.   The fundamental question that will shape the next phase in the Middle East remains: Can this “hybrid deterrence”, comprising domestic missiles alongside imported, only partially integrated weapon systems, endure against an adversary that has already demonstrated both the willingness and the capability to deliver devastating strikes deep inside Iran?

Since 2023, the uranium enrichment market has undergone its most profound structural transformation since the advent of the civilian nuclear era. After three decades characterised by persistent oversupply and the integration of Russian inventories with Western reactor fleets, the sector, valued at approximately $15.5 billion in 2025, now confronts a fundamentally altered geopolitical landscape. stems primarily from the fact that nearly 95% of global enrichment capacity is controlled by just four entities, placing Western supply chains under complex logistical and political pressures.     Central to this transformation is the evolution of what is known as the Separative Work Unit (SWU) from a readily available commodity into a strategic bottleneck capable of redrawing global energy maps. The market has shifted rapidly from a buyer-dominated structure to one characterised by seller leverage, amid an intensifying race to secure fuel for both conventional reactors and small modular reactors (SMRs), which require advanced uranium grades for which Western markets lack adequate commercial infrastructure.     Accordingly, this analysis explores the contours of the new enrichment landscape, examining the principal actors and evolving pricing dynamics, while projecting the profound implications of this transformation for global energy security.

December 2025 marked a structural shift in the global technological balance of power, as a state-backed Chinese industrial consortium, coordinated by Huawei, approved the operation of a functional prototype of an extreme ultraviolet (EUV) lithography system at a facility in Shenzhen. This announcement dismantles a core assumption that has dominated geopolitical thinking in Washington, Brussels, and Tokyo over the past decade, namely that the extreme engineering complexity of EUV technology would permanently confine China behind a technological barrier, preventing it from advancing beyond the 7-nanometre threshold in leading-edge semiconductor manufacturing.   Western containment strategies were grounded in a firm conviction that the Dutch firm ASML’s monopoly over highly complex supply chains would guarantee the exclusion of the world’s second-largest economy from producing the advanced semiconductors required for artificial intelligence applications. The new Chinese prototype, however, has invalidated this assumption, not by replicating Western engineering paradigms, but by pursuing an alternative physical and engineering pathway, shaped by imperatives of national sovereignty and enabled by effectively unconstrained state capital.   This prototype, based on laser-driven plasma (LDP) technology, demonstrates that Chinese engineering teams have mastered the core physical principles of optical control at 13.5 nanometres. In doing so, they have moved beyond a phase long framed as one of "scientific impossibility", shifting the contest decisively into a new stage defined by engineering scale-up and operational viability. This development signals the end of an era of unipolar technological dominance. It inaugurates a new phase of dual ecosystems within the semiconductor industry. This transformation will require a comprehensive reassessment of the economic and security assumptions that have governed the sector for decades.

Operation Absolute Resolve, which resulted in the removal of Nicolás Maduro and his spouse Cilia Flores on Jan. 3, 2026, constituted a watershed moment in the history of 21st-century geopolitical warfare. While initial indicators point to a seemingly limited regime change within Venezuela, the strategic repercussions of the operation inflicted severe damage on Iran’s forward-operating capabilities. For nearly two decades, Venezuela was not merely a diplomatic partner of Tehran; it served as an indispensable logistical bridgehead and a secure sanctuary in the Western Hemisphere. Through this platform, the Iranian regime was able to circumvent international sanctions, project asymmetric influence, and sustain a critical financial lifeline through illicit trade.

The National Security Strategy (NSS) defines the guiding vision of American power and provides a window into how the United States understands the international environment, identifies its priorities, and determines the political, military, and economic tools it will rely on to protect national interests. Accordingly, the NSS shapes defence planning, informs foreign policy doctrine, guides inter-agency action, and signals to allies and adversaries the direction of U.S. engagement in an evolving global landscape.   The 2025 NSS, issued by the Trump administration in November 2025, is a clear articulation of how this administration intends to position itself in a world marked by rising geopolitical fragmentation, sharpening competition, and growing domestic constraints. Its core purpose is to translate the administration’s worldview into a coherent framework that defines what the United States will prioritise, what it will deprioritise, and under what conditions it will expend political capital, economic leverage, or military force.   For the Middle East, understanding the 2025 NSS is essential because it captures the principles shaping America’s evolving posture toward the region. The strategy’s emphasis on burden-sharing, reduced military exposure, and transactional partnerships signals a shift in expectations for regional actors, while its focus on energy security, counterterrorism, and strategic competition with external powers continues to define the contours of U.S. interests. As a formal expression of how the administration interprets threats and opportunities, the NSS provides the clearest available roadmap of Washington’s intentions—and the framework within which its decisions toward the Middle East will be made in the years ahead.

AI is reshaping international competition in ways that governments are only beginning to understand. The spread of AI-enabled cyber operations has created a new landscape in which intrusions unfold rapidly, cross borders with ease, and often leave behind little that can be reliably attributed to a specific actor. States now find themselves navigating an environment where responsibility is increasingly difficult to establish, and where strategic judgement becomes far more fragile.   While espionage and covert action have always operated in murky territory, the introduction of AI into these practices has accelerated the pace of events and weakened the signals that national security officials have traditionally relied upon. This shift demands sustained attention, not only because the technology is advancing quickly, but also because the risks associated with misinterpretation and unintended escalation are becoming sharper.

China has a long-term goal to be a global leader in technology. To achieve such ambition, the country has taken serious steps widening its Belt and Road Initiative (BRI) traditional infrastructure projects to incorporate digital infrastructure projects embodied in the Digital Silk Road (DSR). The DSR was initially launched in 2015 by the government as an idea on paper and during the opening ceremony of the First Belt and Road Forum in May 2017, China’s President Xi Jinping, adopted the DSR term officially and it was incorporated in the government’s BRI strategy as the digital dimension.   The DSR initiative focuses on building digital infrastructure and exporting its technology to the beneficiary countries, it includes telecommunications infrastructure, like 5G networks, overland fibre-optic cables, data centres, cloud computing, artificial intelligence (AI), as well as applications that support e-commerce and mobile payments, along with smart cities and surveillance technology.  Additionally, the DSR provides support to Chinese tech companies, like ZTE, Huawei, and Alibaba, to carry on the work with the beneficiaries.   The DSR aims to enhance Beijing's global digital influence as it creates opportunities for a wide range of cooperation and partnerships between Chinses tech companies and other beneficiaries around the world in areas of digitalization and AI. China’s DSR encompass a variety of projects in 5G deployment, e-commerce platforms, and AI applications, such as DeepSeek which is an alternative model to ChatGPT.   China signed DSR cooperation agreements with several countries in Africa, the Middle East, Eastern Europe, Latin America, and Southeast Asia. The cooperation takes place between scientists and engineers from the recipient country and Beijing, like opening a training centre or in research and development (R&D). The areas of cooperation are wide, including smart cities, AI and robotics, clean energy, and surveillance capabilities, like data localization. GCC countries are considered one of the important partners to China’s DSR, where it is closely integrating in the GCC digitalization goals.

China’s robotics drive is no longer just a story of factories becoming more efficient but a story of a new industrial revolution. Each year, hundreds of thousands of new machines are deployed across its production lines, reshaping global supply chains and altering the balance of technological power. For the Middle East and North Africa, this shift raises questions that cannot be postponed. Automation is moving from the margins to the centre of economic strategy, and regions that fail to build capacity risk being locked into systems designed elsewhere.   The future of robotics in MENA is therefore not only about who installs machines the fastest, but about who sets the standards, who controls the data, and who determines the terms of industrial competition. The region’s next chapter will hinge on whether it becomes a maker of the technologies that define the century, or simply a consumer of them.

Since the launch of the first satellite in 1957, the Low Earth Orbit (LEO) has undergone a profound transformation from a near-empty frontier into a congested and polluted environment shaped by decades of human activity. Non-functional satellites, spent rocket stages, and fragmentation debris from collisions and explosions have accumulated to a mass exceeding 14,700 tons. Critical events have amplified the scale of the problem, most notably China’s Anti-Satellite Test (ASAT) in 2007 and the 2009 collision between the U.S. Iridium-33 and Russia’s Kosmos-2251, which together generated nearly one-third of all catalogued debris in LEO.   This material is unevenly distributed but highly concentrated between 750 and 1,000 kilometres, an orbital belt central to Earth Observation and communications. Objects in this altitude range can persist for centuries, while in the Geostationary Orbit (GEO) debris may remain indefinitely, underscoring the long-term persistence of the hazard. Consequently, orbital space has shifted from an open frontier to a finite and polluted resource requiring collective governance.   This study examines the economic and political dimensions of space debris. It assesses the direct costs borne by operators, the cascading risks to terrestrial infrastructure such as Global Navigation Satellite Systems (GNSS) and weather forecasting, and the disproportionate challenges facing developing nations. It concludes by analysing potential responses, ranging from mitigation strategies to Active Debris Removal (ADR), within the broader framework of international governance and global equity.

In recent years, Low Earth Orbit (LEO) satellite constellations have emerged as a transformative layer within the global digital infrastructure, marking a departure from their original role as connectivity solutions for remote regions. These systems are now embedded within the operational cores of critical sectors such as civil aviation, maritime logistics, financial markets, and defence. The clearest manifestation of this structural shift is Starlink, operated by SpaceX, which by mid-2025 had exceeded 7 million users across more than 150 countries, with exponential growth rates in high-value, latency-sensitive industries.   This rapid technological and geographical expansion has positioned Starlink as a globally integrated utility—yet one that operates outside conventional regulatory regimes. It represents a structural concentration of control over global data flows in a single, privately held entity. The dual outages that occurred in July and September 2025 exposed deep systemic vulnerabilities within the Starlink network, including software architecture fragilities and environmental sensitivities to space weather events. These incidents prompted urgent questions about the stability of a critical infrastructure layer that now underpins sectors central to national sovereignty and global economic coordination.   This report interrogates the systemic risks embedded in the global economy’s growing dependence on LEO constellations through two interlinked analytical lenses. The first is a technical-political economy perspective, which examines the underlying architecture of the Starlink network and the typology of its failure modes—both endogenous and exogenous. The second is a forward-looking, scenario-based assessment that models the potential global economic consequences of a 24-hour Starlink outage in 2032. Through this dual approach, the analysis traces the contours of a new strategic dilemma: how to govern an emergent, transnational infrastructure whose failure could trigger multi-sectoral crises at planetary scale, yet whose design and control remain entirely privatized.

The global aviation industry is undergoing a historic realignment, as the center of gravity shifts decisively from West to East—a transformation that reflects deeper dynamics in the redistribution of economic and geopolitical power within the international system. For decades, Western carriers dominated the skies, leveraging superior infrastructure, extensive fleets, and mature consumer markets. Today, however, airlines based in the Middle East and Asia are emerging as the new engines of growth and connectivity, assuming a central role in redrawing the global map of intercontinental air travel. While the COVID-19 pandemic accelerated this trajectory, it did not initiate it; rather, it exposed the structural vulnerabilities of legacy Western airlines and underscored the strategic foresight of their Eastern counterparts, whose recovery was bolstered by extensive state support and institutionally anchored expansion strategies.   One of the most visible manifestations of this shift is an intense race to modernize fleets with next-generation, long-range, fuel-efficient aircraft—an investment wave that exceeds $200 billion in the Middle East alone. This is not merely a technical upgrade; it constitutes a deliberate, long-term vision to project aerial influence, enhance global market competitiveness, and entrench these airlines as sovereign instruments of statecraft.   Accordingly, this study analyzes the contours of this transformation through an integrated framework that examines operational strength, capital investment in fleets, network architectures, and the adaptability of business models. It further explores the growing convergence between national economic visions—such as Saudi Arabia’s Vision 2030 and China’s Belt and Road Initiative—and the strategic deployment of national carriers as tools of geopolitical influence. Rather than forecasting definitive outcomes, the paper seeks to situate this aviation shift within a broader, more volatile global context—one where profitability and efficiency increasingly intersect with sovereignty and strategic positioning, and where the skies themselves become arenas for shaping the balance of power in the decades ahead.

The global competition over semiconductors and related military technologies has become the central axis of great-power rivalry. The United States maintains its leadership in the global semiconductor industry, with American companies securing roughly half of the global semiconductor market. However, this dominance faces a growing challenge from China, which accounted for 20% of global semiconductor sales in 2024. Beijing’s ambition to achieve self-sufficiency in semiconductors is steadily advancing despite ongoing trade tensions and intellectual property restrictions imposed by Washington amidst the broader ‘tech war.’ China aims to reach 50% self-sufficiency in semiconductor production by the end of the year, reinforced by significant investments in R&D and market expansion by Chinese firms.   In contrast, Russia’s position in semiconductor-dependent military industries is increasingly constrained. Although Russia retains expertise in weapons design, its reliance on imported materials and advanced chip-making equipment from Western countries exposes critical vulnerabilities. Western sanctions, introduced in response to Russia’s military actions in Ukraine, have sharply limited Moscow’s access to these essential inputs. In response, Russia has sought alternative suppliers, with China emerging as its largest source of semiconductor materials. These dynamic forms part of the broader Russia-India-China (RIC) trilateral framework, underpinning Moscow’s strategic pivot toward Eastern partnerships.   Meanwhile, India is rapidly evolving as a significant player in the semiconductor sector. The country’s announcement in September of its first indigenous chip, “Vikram 32,” marks a milestone in New Delhi’s pursuit of technological self-reliance and signals India’s potential emergence as a competitor to U.S. semiconductor dominance. India’s increasing engagement with Russia and China reflects a pragmatic alignment based on mutual interests, particularly in the context of escalating policy tensions with Washington. Notably, U.S. tariffs imposed on India’s trade in Russian oil have further incentivized this trilateral collaboration.   Collectively, the China-Russia-India “troika” represents a coalition of shared interests rather than a formal ideological alliance. Should this partnership strengthen, it could significantly bolster their semiconductor manufacturing capabilities and pose a formidable challenge to the American industry. Nevertheless, lingering frictions—such as unresolved border disputes, differing economic priorities, technological gaps, and the impact of sanctions—are likely to impede seamless technological integration. The United States still wields substantial influence over India, with opportunities to attract New Delhi through increased investments, tariff reductions, and advanced technology cooperation. Ultimately, the trajectory of the RIC semiconductor partnership holds profound implications for the global order. A successful integration of this “troika” chip industry with their respective military technologies could catalyse the rise of a multipolar system, revolutionizing surveillance, air defence, drone capabilities, and the broader defence industrial base, thereby reshaping international power dynamics.