Introduction: China edges out the West
Just a little over a year ago, the Australian Strategic Policy Institute (ASPI) concluded from its survey of the field that China is ahead of the United States in 90% (57 out of 64) critical technologies which are defining the future of economic power in the world.
The flip had taken just two decades to manifest. What’s more, if China geostrategic alliances are considered (think of BRICS, the Eurasian Axis, etc.) and matched against that of the United States (e.g. the so-called Trans-Atlantic alliance, Five Eyes, and the Israeli pact), further advantages around cost-efficiency and raw material control levers may boost the counter-West’s edge to 95%.
I want to make a provocative point that this assessment is primarily confined to civilian technologies. At least, for now.
What we have seen in the last few years in the Russia-Ukraine theater, in Venezuela, and the Middle-East (including the unfolding saga in the Persian Gulf), suggests that there is still a considerable material gap between Western military technologies and those of the Eurasian-BRICS axis (with its Sino-Russian core.)
I will proceed to make a bold claim that two theories I have been working on for more than a decade: hyper-integration and transmediation explain this paradox (of civilian tech dominance coupled with military tech inferiority) rather remarkably.
Ride with me.
Iron Beam Pierces
On 28 December 2025, a convoy of Israeli Defence Forces trucks rolled through the southern Negev carrying cargo whose military significance may yet rival that of the first nuclear detonation at the Trinity test site eighty years prior. Crated within an armoured housing was Iron Beam: a 100-kilowatt directed-energy weapon capable of incinerating incoming projectiles at the speed of light for roughly $3.50 per shot. Its predecessor systems in the Iron Dome often attempted the same feat at $50,000 per projectile.
Within weeks, the system was declared operational along Israel’s northern frontier. The era of laser missile defence had, quietly, arrived.
Source: Army Recognition
Across the strategic chessboard, Beijing was showcasing its own directed-energy ambitions. The Silent Hunter, a vehicle-mounted laser demonstrated at defence expos since 2017, had entered limited deployment in border security roles. Chinese state media described it as a peer-level system. On paper, the claim was plausible: both devices use fibre-laser modules, solid-state architecture, and sophisticated beam-steering optics. Both are products of nations that have spent lavishly on defence research for decades.
Yet the resemblance is superficial. Iron Beam employs coherent beam combining. That’s a nerdy way of talking about a technique that phase-locks dozens of individual laser emitters into a single wavefront, concentrating energy density at extreme range with the precision of a surgical scalpel. The Silent Hunter uses incoherent combining, which merely superimposes beams without synchronising their phase. The difference is roughly analogous to the gap between a symphony orchestra tuned to the same key and a crowd of revellers karaoking in the same park. You are welcome to say that sound is sound. Yet, you must concede that it is one type that shatters glass.
This essay is about why that gap exists. And about why it tells us something far more consequential than the technical specificities of photonics or adaptive optics. The divergence between Iron Beam and Silent Hunter distills a broader structural phenomenon: the persistent, widening chasm in military technology between the Western alliance system and the Eurasian axis of China, Russia, and their partners, including some in the BRICS (such as Iran.) A chasm that persists even as these same counter-West powers have achieved near-parity, and in some domains clear leadership, in civilian technology.
How can the nation that built the world’s most advanced 5G infrastructure fail to phase-lock an array of fibre lasers? How can a country that mass-produces the chips powering a third of the world’s consumer electronics struggle with the microelectronic timing circuits essential for coherent beam combining? The puzzle is sharpened by the fact that the underlying physics is well understood and the key papers are publicly available. The knowledge itself is not secret. The capacity to operationalise it, however, is.
• • •
Free-riders’ Paradise
To grasp why the military technology gap endures, one must first understand the true nature of civilian technology parity between East and West.
The technological accomplishments of China over the past two decades are staggering. There is absolutely no doubt about that. Huawei’s 5G architecture, deployed across dozens of countries, represents a genuine engineering triumph. ByteDance’s recommendation algorithms are arguably the most sophisticated in commercial use anywhere. BYD has overtaken Tesla in global electric vehicle sales. At the level of discrete products and platforms, the narrative of convergence – or even overtaking – is very real and geostrategic analysts are unanimous in acknowledging a material shift in gravity.
But products are not ecosystems. What underpins all of these achievements is a set of deeply integrated, overwhelmingly Western-governed technological substrates that Chinese firms access but do not control. Amazon Web Services, Microsoft Azure, and Google Cloud account for roughly 65 per cent of global cloud infrastructure revenue. Alibaba Cloud and Tencent Cloud, though growing rapidly, operate on hardware stacks whose most critical components – such as NVIDIA GPUs, AMD processors, Broadcom networking chips – originate from firms embedded within Western supply chains. The ASML monopoly on EUV lithography means that the most advanced semiconductor fabrication on earth depends on a single Dutch machine that, as ASML’s own CEO has acknowledged, could not be replicated even with access to its blueprints.
My previous work on hyper-integration provides the conceptual scaffold for a novel kind of analysis that describes these ecosystems as “fluid composites”: contingent amalgams of dispersed capabilities that evolve through dense, trust-dependent mechanisms pooling data, algorithms, and protocols across heterogeneous networks. What matters is not necessarily the capability of any single node, though each certainly matters. What is most essential more than any individual firm, laboratory, or national champion is the viscosity of the connections between them. In the hyper-integration framework, an analyst must confront a condition in which data and algorithms become so intimately interleaved across organisational boundaries that extracting one component without degrading the whole is akin to removing a thread from a tapestry: technically possible, but aesthetically ruinous.
The civilian technology sphere permits a particular form of free-riding on these composites. Chinese firms can purchase NVIDIA chips through third-party channels. They can train models on open-source codebases – some 80 per cent of which are maintained by contributors headquartered in the United States – and deploy them on cloud infrastructure that, while physically located in Asia, depends on Western-designed orchestration software. The access is indirect but effective. What results is a form of technological symbiosis easily mistaken for independence.
The civilian technology sphere permits a particular kind of free-riding on Western ecosystems. What results is a form of symbiosis easily mistaken for independence.
Coral Reef Innovation Networks
Consider the analogy of a coral reef. Dozens of species flourish within it, each apparently self-sufficient. But cut off the reef’s calcium carbonate substrate – its literal foundation – and the entire biome collapses. The substrate is not glamorous. It does not feature in nature documentaries the way sharks and octopuses do. But it is load-bearing. Western hyper-integrated ecosystems function as this substrate for global civilian technology, and much of the Eurasian axis’s undoubted technological prowess has flourished atop the vivid, camera-ready fauna rather than the reef itself.
• • •
And so the Fabric Frays
The military domain inverts this dynamic. Security classification forecloses the casual access to integrated ecosystems that civilian firms enjoy. One cannot simply purchase the phase-synchronisation algorithms for coherent beam combining on the open market. The ultra-fast analogue-to-digital converters essential for inverse adaptive optics, such as the technique that allows Iron Beam to compensate in real time for atmospheric distortion, are subject to stringent export controls under the Wassenaar Arrangement and US Bureau of Industry and Security regulations. Even where hardware can be obtained through grey-market channels, the tacit knowledge required to integrate it into a functioning weapons system cannot.
This distinction between codified and tacit knowledge is old. Experienced readers would recognise Michael Polanyi’s articulation of the idea in the 1950s. However, its military significance has intensified as weapons systems have grown more complex. A modern directed-energy weapon is a system of systems: the laser source must integrate with beam-steering optics, atmospheric sensors, target-tracking algorithms, cooling systems, power management electronics, and command-and-control networks. Each component may be individually replicable. One may excel at the discrete capabilities in each layer of each productised component.
But their integration, and especially hyper-integration, is where the highest value lie. Because the knowledge of how to make them function as a coherent whole and resides in the organisational routines, institutional memories, and interpersonal trust networks of the teams that built them. Where they are dispersed across many national borders, the trust-intensity issues multiply severalfold.
The scholars Ronald Gibson, Charles Sabel, and Robert Scott identified this principle in their work on collaborative innovation networks: complex innovation emerges from “contracting for innovation” arrangements where parties share proprietary knowledge under governance structures that make defection costly but adaptation cheap. The US-Israel defence relationship epitomises this. Rafael Advanced Defense Systems, the manufacturer of Iron Beam, collaborates with Lockheed Martin, Northrop Grumman, and several smaller American photonics firms through frameworks that have been decades in the making. Personnel rotate between projects. Intellectual property is governed by bilateral memoranda that allow flexible credit distribution. The Israeli Ministry of Defence’s Directorate of Defense Research and Development (Mafat) functions as a trust broker, a transmediary. That is to say it is an institution whose primary output is not technology per se but the relational architecture within which technology can be co-created.
I call this process “transmediation”: the creation of relationships that define new value nodes rather than merely intermediating between existing ones. And the entrepreneurial focus purely on these relational architectures instead of final outputs or end products. Transmediation generates trust endogenously. It distributes credit flexibly. It permits the kind of radical knowledge-sharing that coherent beam combining demands. The kind where dozens of specialist firms must reveal their most sensitive intellectual property to achieve a collective capability none could produce alone.
The Eurasian axis still has nothing equivalent. The China-Russia strategic partnership, while rhetorically robust, is characterised by strategic distrust at the institutional level. There is no shared source-code repository between Russian and Chinese defence firms. There are no joint open-architecture data meshes. Russia guards its S-400 radar frequencies from Chinese partners with the same jealousy it once reserved for NATO adversaries. China, for its part, has provided Russia with roughly 89 per cent of its microchip imports since 2022. The important fact, however, is that it has provided exclusively dual-use components, with no accompanying transfer of systems-integration knowledge.
All capitalist collaboration worldwide is transactionalist. However in the Eurasian axis, the transactionalism is also ultra-contingent, preventing the formation of durable operational-trust playbooks. In hyper-integration Transmediary vocabulary, the Eurasian approach is intermediation masquerading as integration: a set of bilateral deals conducted through existing value nodes rather than the creation of new ones. The viscosity is low. The heterogeneity, especially the diversity of participating nodes that fuels combinatorial innovation, is minimal. What emerges then is something that does not fully resemble a fluid composite but a stack of discrete transactions, each complete in itself, few contributing to a larger systemic capability.
• • •
Find Equations for a Physics of Trust
Nowhere is this structural divergence more visible than in the specific technical gap between Iron Beam and its Eurasian counterparts. The physics of coherent beam combining demands something that sounds almost paradoxical: dozens of independent laser emitters must be made to behave as one. Each emitter produces light at a slightly different phase. Coherent combining requires measuring these phase differences at femtosecond resolution – you got that right: trillionths of a second – and correcting them in real time through feedback loops operating at megahertz frequencies.
The electronic components that enable this, such as ultra-fast analogue-to-digital converters, field-programmable gate arrays with sub-nanosecond response times, and photodetectors with sufficient bandwidth to capture wavefront distortions, are products of a semiconductor fabrication ecosystem that, as discussed, is overwhelmingly Western.
But the hardware alone is insufficient. Coherent combining also requires what laser physicists call “inverse adaptive optics”: algorithms that model atmospheric turbulence and pre-distort the beam to compensate for it, so that by the time it reaches its target, the distortion has been reversed. These algorithms draw on decades of collaborative research between American and Israeli laboratories, much of it conducted within classified programmes that generate their own internal knowledge ecosystems.
Beam-Combining Approaches: A Technical Snapshot
| Parameter | Incoherent | Spectral | Coherent (CBC) |
| Phase synchronisation | None | None | Active & real-time |
| Beam quality at range | Degrades rapidly | Moderate | Near-diffraction-limited |
| Energy density (relative) | 1x | 3 – 4x | 8 – 10x |
| Critical bottleneck | Thermal management | Wavelength availability | Phase-sensing electronics |
| Representative system | Silent Hunter (China) | Rheinmetall HEL (DE) | Iron Beam (IL/US) |
Source: Author compilation from open-source technical literature and defence reporting.
The 8 – to – 10x advantage in energy density at range is rather decisive. At distances beyond two kilometres, the relevant range for a missile-defence system engaging incoming projectiles, an incoherent system must compensate for beam divergence by dramatically increasing total power output, generating waste heat that overwhelms tactical cooling systems. A coherent system, by contrast, maintains a tight beam profile, delivering lethal energy to target with surgical efficiency. The cost per engagement drops to single-digit dollars. Interceptor missiles, at $40,000 to $50,000 each for systems like Iron Dome, become economically obsolete for the categories of threat that directed energy can address.
I contend that the strategic calculus shifts on this axis. Iran, Hezbollah, and the Houthis have invested heavily in mass-saturation attacks. Based on the logic that if each interceptor costs fifty thousand dollars and each rocket costs five hundred, the attacker holds the economic advantage. Iron Beam inverts this arithmetic entirely. The defender’s marginal cost falls below the attacker’s, creating a dynamic in which saturation attacks become self-impoverishing rather than strategically exhausting. The weapon self-evidently reshapes the economics of conflict at the most fundamental level.
And it was produced by an interplay of productive forces that exceed many a single nation’s industrial capacity. It is emergent from the integrated, trust-dense, fabric of the Western alliance system. Note that “trust” here is used in the specific sense of hyper-integration and transmediation rather. We are not making moral judgements.
Remove Lockheed Martin’s power-management expertise, and Iron Beam loses its thermal stability. Remove the American semiconductor supply chain, and the phase-sensing electronics stop existing fast. Remove decades of joint atmospheric research, and the adaptive optics algorithms lack their empirical foundation. Then factor in the “variable geometries” that makes global value chain dispersion across countries critical. Innovation requires heterogenous experiments. Even a formidably well-resourced jurisdiction like China is too homogenous a system to foster the critical mass of experiments needed to create every critical component of a system of systems.
The effective result that is iron beam is, in the deepest sense, a collective product. What in the hyperintegration-transmediary literature we call a fluid composite. The contention in this essay is that such creations could not, except with great strain and extended timeframes, have been assembled through procurement alone.
• • •
Sometimes, Institutions Crack Under Load
If transmediation is the mechanism by which the Western alliance system generates military-technological supremacy, its relative absence explains the Eurasian axis’s persistent shortfall. But the problem runs deeper than the bilateral China-Russia relationship. The institutional architecture of the BRICS constellation is itself structurally incapable of sustaining the kind of integration that complex military innovation demands.
Consider the New Development Bank (NDB), the BRICS bloc’s most ambitious multilateral institution. Founded in 2015 with equal shareholding by Brazil, Russia, India, China, and South Africa, the NDB was meant to provide a non-Western alternative to the World Bank and IMF. Its rhetoric emphasised sovereignty, mutual respect, and freedom from Western conditionality.
The rhetoric evaporated within hours of Russia’s invasion of Ukraine in February 2022. The NDB, which borrows on international capital markets in US dollars and depends on credit ratings from S&P (AA+) and Fitch (AA+) to do so, suspended all transactions with Russia within days of the imposition of Western sanctions. As of mid-2025, it had still not resumed lending to a founding member. Dilma Rousseff, the bank’s Brazilian president, acknowledged the constraints publicly: the NDB’s viability depends on its dollar-denominated borrowing capacity, which depends on its credit ratings, which depend on sanctions compliance.
The episode is devastating for the BRICS institutional project, and its implications for military-technological cooperation are direct. If the bloc’s flagship financial institution cannot maintain solidarity with a founding member in a moment of geopolitical crisis, what prospect is there for the far more sensitive domain of defence technology sharing? The NDB failure reveals the hollowness of transactional multilateralism subject to contingency-thinling: an institution built on intermediation rather than transmediation collapses the moment external pressure tests it, because no endogenous trust has been generated to sustain it.
If the BRICS bloc’s flagship financial institution cannot maintain solidarity with a founding member in crisis, what prospect is there for the far more sensitive domain of defence technology sharing?
Contrast this with NATO’s institutional response to the same crisis. Within months of the invasion, Finland and Sweden joined the alliance, bringing with them sophisticated defence-industrial capabilities. German defence spending surged past the 2 per cent of GDP threshold for the first time in decades. The European Sky Shield Initiative integrated air-defence procurement across fifteen nations. The alliance’s institutional density, its thick web of bilateral memoranda, standardisation agreements, joint training programmes, and interoperable command structures, proved resilient under stress precisely because it had been built over decades through transmediation rather than transaction. I am not discounting the huge strain that the Trump turn has brought to bear on the trans-Atlantic alliance. I am merely suggesting that this recent setback must be contextualised against a long record of cumulative operational-trust building and the resilience of what it has generated as a result.
• • •
Think of Integration in terms of Gravitational Pull
The consequences of this structural asymmetry are now propagating through the international system in ways that compound the original advantage. A gravitational dynamic is at work: if the Western integration fabric continues to demonstrate its superiority in producing militarily decisive technologies, middle powers will continue to be drawn toward it, further enriching its heterogeneity and density.
The most striking example is unfolding in the Middle East. Saudi Arabia, the United Arab Emirates, and several Gulf states, nations that have historically hedged between Western and Eurasian partnerships, are now in active discussions to procure Iron Beam and related systems. The driver is far from ideological alignment. You must locate it in empirical observation: during the escalatory cycles of 2024 – 2025, Western-origin air defence systems performed dramatically better than their Russian equivalents. The failure of Russian-supplied systems in several Middle Eastern and South American theatres has been widely noted. Conversely, the Arrow-3 exo-atmospheric interceptor and the THAAD system demonstrated reliable capability against ballistic missile threats.
Each new partner that joins the Western defence-industrial ecosystem enriches it. Saudi investment capital funds research programmes. Emirati testing ranges provide validation environments unavailable in Europe. Indian software engineering talent contributes to increasingly sophisticated algorithmic capabilities. The ecosystem grows more heterogeneous. And in the hyper-integration framework, heterogeneity is the primary driver of combinatorial innovation. A network of ten similar nodes is less creative than a network of five dissimilar ones.
Integration Capacity: Western Alliance vs. Eurasian Axis
| Dimension | Western Alliance | Eurasian Axis |
| Network density (inter-firm linkages) | High: 30+ nations, deep bilateral MoUs | Low: bilateral, hub-and-spoke |
| Heterogeneity (diversity of participants) | High: varied firm sizes, cultures, specialisms | Low: dominated by state SOEs |
| Trust quality (endogenous vs. transactional) | Transmediated: decades of joint programmes | Transactional: deal-by-deal, guarded |
| Temporal depth | 70+ years (NATO, bilateral alliances) | ~20 years (modern Sino-Russian axis) |
| Composite Integration Score | 87 / 100 | 25 / 100 |
Scores derived from Integration Capacity Index methodology (see upcoming companion working paper). Scale: 0 – 100.
The numbers are suggestive rather than definitive, true, but the directional story is quite unambiguous. A 3.5 – to – 1 advantage in military integration capacity, compared with a mere 1.4 – to – 1 ratio in the civilian domain, captures a stark structural truth: the military gap is an integration gap, and the integration gap is starting to widen rather than close.
• • •
The Road Not Built
Is the gap permanent? We all probably suspect that it is not. But the question is worth posing anyway. Because the answer illuminates what the Eurasian axis would have to do to close it. It also raises another question about the political economy of contingent alliance-building (robbed of an underlying normative architecture) and how that makes transformation so difficult.
Closing the integration gap would require, at minimum, three shifts. First, a move from hub-and-spoke bilateral relationships to a genuinely multilateral, open-architecture defence-industrial network. This means Chinese firms sharing source code with Russian engineers and vice versa. Such sharing must go beyond transactional component supply to encompass the tacit, process-level knowledge that drives systems integration. Second, the creation of institutional trust brokers analogous to Mafat or the US Defense Advanced Research Projects Agency (DARPA). These shall be Transmediary organisations whose mandate is to make collaboration between diverse partners frictionless and to distribute credit in ways that sustain participation. Third, a willingness to accept asymmetric credit distribution: the recognition that in any genuinely integrated network, some partners will contribute more and others will benefit more, and that this asymmetry is a feature, not a flaw.
Each of these requirements runs against the grain of how contingent-transactionalist alliances organise their cross-border defence-industrial complexes. State-owned enterprises compete for political patronage, not market share, and they hoard information as a source of bureaucratic power. The very concept of open architecture – the Modular Open Systems Approach that the US Department of Defence has pursued since the 2010s – is structurally alien to an industrial model built on vertical integration and political control. And the willingness to accept that your partner may capture a disproportionate share of the value generated by a collaborative programme requires a depth of institutional operational trust that decades of geopolitical rivalry have not produced and show no sign of producing.
Russia’s experience in Ukraine has, if anything, intensified these centripetal tendencies. Confronted with the failure of its precision-guided munitions to perform as advertised, Moscow has doubled down on import substitution rather than international collaboration, which has simply proven too difficult to muster. It is now seeking to produce indigenously what it previously purchased from Western suppliers, at the cost of further reducing the heterogeneity of its defence-industrial base. China’s response to the semiconductor export controls has followed a similar logic: massive state investment in domestic chip fabrication, which may eventually yield results but which, by definition, reduces dependence on the heterogeneous, globally distributed, networks that drive the fastest innovation. Sino-Russian analysts must rethink their posture. While it may produce short-term benefits, it is highly unlikely that it will capture sustained advantage.
We have unpacked a very sharp paradox. The very strategies that the Eurasian axis adopts to reduce its vulnerability to Western leverage – such as import substitution, indigenous development, and insulation from foreign dependencies, are strategies that reduce integration density, compress heterogeneity, and thereby widen the military technology gap they are meant to close. Self-sufficiency and integration are, in this domain, opposing forces.
The very strategies that the Eurasian axis adopts to reduce its vulnerability to Western leverage are strategies that widen the military technology gap they are meant to close.
• • •
The West’s Last Fortress
There is a temptation, in strategic analysis, to measure power in discrete units: warheads, divisions, GDP, and patent filings among others. These metrics are legible, comparable, and satisfyingly concrete. They are also, in isolation, rather misleading. The most consequential form of military-technological power in the twenty-first century does not reside in any single weapon system or industrial output. It resides in the connective tissue between them. It inheres in their density and heterogeneity, and in the trust quality of the networks that link firms, laboratories, government agencies, and allied nations into a coherent geostrategic innovation ecosystem.
This ecosystem is the West’s last fortress. Though it cannot be mapped by satellite or catalogued in a procurement database, it is as real as the Sun in our firmaments. It may not appear in defence budget tables or missile counts. It may only manifest in moments of operational truth, such as when a laser locks onto an incoming missile in the Negev, when an air-defence network seamlessly integrates data from sensors spread across half a dozen allied nations, or when a directed-energy weapon achieves at $3.50 what its nearest competitor cannot achieve at any price. But each manifestation builds tangible fact upon fact, and leave sure marks on geopolitical ground.
For the Eurasian axis, this paradox greatly annoys. Civilian technological parity, however impressive, continues to outshoot military equivalence. The path to genuine military-technological competitiveness seems set to stubbornly run through a landscape other than larger budgets, and the mega subsidies they underwrite, or even more aggressive industrial espionage. It seems to insist on requiring painstaking, decades-long construction of institutional architectures capable of generating trust endogenously. That is to say, through transmediation rather than transaction.
Whether the political systems of Beijing and Moscow are capable of such construction is, perhaps, the most consequential strategic question of our era. The history of insular modernisation offers some reasons for scepticism. But history also reminds us that institutional innovation, like technological innovation, can emerge from unexpected quarters. The current gap is structural, but structures can be reformed. The question is whether they will be reformed before the gravitational dynamics of integration – which are pulling middle powers into the Western orbit at an accelerating rate – make the fortress truly impregnable for the next decade.
In the meantime, the laser in the Negev fires. And in its coherent beam – that impossibly precise convergence of independent wavefronts into a single, devastating pulse of light – one can read the signature of something far larger than a weapons programme. The West’s last and only remaining advantage. If it slacks, the hemispheres flip, and the “Global South” will reposition to the top pole.