The U.S. defense industrial base stands at a turning point for reinvention: from precision platforms toward commercial integration, scale, and software-defined capabilities

Overview

This report discusses the structural reshaping of the U.S. defense industrial base in the context of modern warfare. It argues that the United States still possesses the world's strongest high-end military platforms and technology base, but the highly concentrated, long-cycle, prime-contractor-dominated DIB that emerged after the Cold War has exposed weaknesses including insufficient production depth, supply-chain fragility, slow procurement, and slow absorption of innovation. Facing China's A2AD and Military-Civil Fusion, as well as the spread of unmanned systems and real-time data warfare in the conflicts in Ukraine and the Middle East, the United States needs to integrate commercial technology, software, modular hardware, and traditional high-end platforms into an industrial system that can iterate rapidly, scale production, and operate in contested environments.

Core views

The core views are as follows: first, the U.S. DIB's 'precision platform' model still has value, but it is insufficient on its own to support future conflicts; second, wartime advantage is shifting from single-platform performance toward industrial capacity, cost discipline, software update speed, and data-driven command and control; third, the commercial sector is the most durable source of U.S. digital-technology advantage and must be integrated more deeply into the defense ecosystem; fourth, emerging defense technology companies and unmanned/attritable systems are complementing traditional prime contractors, but to truly change the landscape, institutional, procurement, intellectual-property, scalable-manufacturing, and open-architecture issues still need to be resolved.

Analysis framework

The report uses a combination of historical evolution, international comparison, supply-chain structure, modern warfare case studies, and technology architecture analysis: it first reviews how World War II mobilization, Cold War specialization, and post-Cold War consolidation shaped the current DIB, then compares different defense industrial base models through the cases of China, South Korea, Sweden, Israel, and others, and finally evaluates the U.S. reform path through examples including the kill chain, JADC2, A2AD, MOSA, unmanned systems, and the F-35/Barracuda.

Methodology notes

• Defense industry analysisDefense Industrial Base (DIB)

  Measures defense industrial resilience through prime-contractor concentration, the depth of tier-2 and tier-3 supply chains, procurement cycles, capacity elasticity, and the degree of integration with the commercial sector.

  The report uses the DIB framework to explain the structural fragility behind U.S. high-end platform advantages and focuses reform on three capabilities: integration, scale, and innovation.

• Operational process analysisKill Chain / F2T2EA

  Understands the coordination of sensors, platforms, weapons, and software in modern operations through find, fix, track, target, engage, and assess.

  The report emphasizes that future advantage depends on completing the 'sense-understand-act' cycle faster and more reliably, rather than relying solely on the performance of any single platform.

• Strategic threat analysisA2AD

  Raises an adversary's cost of entry and operations through electronic warfare, cyberattacks, long-range missiles, and air-defense systems.

  The report treats China's A2AD as a critical operating environment to which the U.S. DIB must adapt, requiring systems that can operate in distributed, reconfigurable, and degraded-connectivity conditions.

• Command-and-control and software architectureJADC2 / MOSA

  Uses joint all-domain command and control and modular open systems architecture to connect sensors, decision-makers, and weapons while reducing vendor lock-in.

  The report argues that JADC2 and MOSA are important policy and technological levers for bringing commercial software capabilities into the defense system, but execution is constrained by procurement processes, data-rights issues, and intellectual-property friction.

• International comparisonComparative analysis of defense industrial bases

  Compares differences among the DIBs of China, South Korea, Sweden, Israel, and others in government-industry coordination, supply-chain resilience, export scale, and technological innovation.

  The report uses overseas cases to show that successful defense industrial bases often depend on tighter government-industry integration, a stronger manufacturing base, and faster technology translation.

Asset mapping & comparison

Structured mapping from thesis to named assets (strengths, weaknesses, peers, risks).

• Traditional U.S. defense prime contractors (Lockheed Martin, Boeing, Northrop Grumman, Raytheon, General Dynamics)

  The core of the existing high-end platform system and the main constituency that DIB reform must move.

  Strengths

  Possess large-program experience, government contract relationships, systems-integration capability, and high-end platform moats.

  Weaknesses

  Long development cycles, high costs, complex supply-chain tiers, and possible constraints from existing programs and profit structures.

  Comparison

  Compared with emerging companies, prime contractors are stronger in certification, production, and platform integration; compared with commercial technology companies, they are weaker in software iteration speed and open ecosystems.

  Risks

  If they cannot adapt to open architectures, modularity, and rapid iteration, they may be marginalized in incremental defense budgets and technological transformation.

• Emerging defense technology companies (such as Palantir, Anduril, etc.)

  Act as challengers and complements in JADC2, Maven, Lattice, autonomous systems, and software-defined warfare.

  Strengths

  Fast software iteration, strong ability to absorb commercial technology, and better suitability for real-time data, AI, autonomous systems, and open architectures.

  Weaknesses

  Their experience in mass manufacturing, compliance certification, sustained delivery, and complex government procurement still needs to be validated.

  Comparison

  Compared with traditional prime contractors, new entrants are more agile; however, their capabilities in scaled production and long-duration program execution remain uncertain.

  Risks

  If they cannot transition from prototypes and small-batch orders to large-scale, reliable, auditable delivery, their commercialization and valuation logic may come under pressure.

• Drone, robotics, and attritable hardware supply chain

  A low-cost, expendable, rapidly replenishable capability layer in modern conflict that complements traditional precision platforms.

  Strengths

  Lower cost and rapid deployability, making it suitable for high-consumption, distributed, and transparent battlefields.

  Weaknesses

  Requires large-scale manufacturing, anti-jamming capability, supply-chain stability, and integration with command-and-control networks.

  Comparison

  Compared with high-end platforms such as the F-35, attritable systems emphasize quantity, speed, and cost more; however, they cannot replace strategic-grade hardware.

  Risks

  Cost gaps, electronic-warfare suppression, dependence on key components, and mass-production bottlenecks may limit both operational and commercial value.

• Commercial technology and advanced manufacturing ecosystem

  The report argues that the commercial sector is a key source of U.S. military advantage in the digital age.

  Strengths

  Has innovation speed in AI, cloud, software, semiconductors, satellite communications, cybersecurity, and advanced manufacturing.

  Weaknesses

  Faces friction with defense procurement, confidentiality, certification, IP, and data-rights rules.

  Comparison

  Compared with closed defense-industrial systems, the commercial ecosystem is faster and broader; compared with China's Military-Civil Fusion model, the United States needs better institutional linkage rather than administrative integration.

  Risks

  If policy cannot lower entry barriers and reduce vendor lock-in, commercial technology advantages will be difficult to convert into durable military power.

• China's Military-Civil Fusion and A2AD system

  Both an external pressure driving U.S. DIB reform and an important reference point in international comparison.

  Strengths

  Strong in manufacturing scale, alignment between commercial manufacturing and defense demand, shipbuilding and missile output, and supply-chain coverage.

  Weaknesses

  The report does not elaborate on its institutional weaknesses, but treats it as a model of intense competition facing the United States.

  Comparison

  China places greater emphasis on civil-military integration and scaled manufacturing, while U.S. advantages lie more in commercial digital technology and alliance systems.

  Risks

  If the United States cannot reduce its exposure to Chinese critical materials and components in the supply chain, the risks of strategic coercion and supply disruption will increase.

Key data

• Number of interstate conflicts44 in 2003, 67 in 2024, up 52%The report uses this data to show that the security environment has deteriorated significantly relative to the early post-Cold War period.
• Global military spendingReached US$2.7 trillion in 2024Up 34% from 2010 and 16% from 2022.
• Share of global defense spendingUnited States about 36%, NATO about 18%, China about 12%The United States remains the largest defense spender, but spending by competitors and allies is also rising.
• World War II industrial mobilizationMore than 800,000 enterprises participated; aircraft output rose from about 6,000 in 1939 to about 237,000 in 1944Used as a historical reference for the rapid conversion of the U.S. commercial industrial system to defense production.
• Post-Cold War industry consolidationPrime contractors fell from more than 50 in 1991 to 5 in 2000Lockheed Martin, Boeing, Northrop Grumman, Raytheon, and General Dynamics became the core prime contractors.
• Contract value concentrationThe five largest prime contractors control more than 60% of contract valueGreater concentration improved high-end platform capability but also weakened competition and alternative production lines.
• Cycle time for major defense programsAverage of about 8 yearsThe report says about 70% of electronic equipment is already outdated before being delivered to troops, highlighting the mismatch between procurement cycles and technological iteration.
• F-35 contract exampleIn 2025, Lockheed Martin received a US$12.5 billion contract for 300 F-35 aircraftUsed to illustrate the structure of a government monopsony and prime-contractor dominance.
• Low-cost attritable system cost benchmarkThe Barracuda-500 chart indicates a unit-price range of US$150K-US$200KThe report uses this to discuss how to narrow the cost gap with low-cost Shahed-type drones.

Impact & implications

The investment and industry implications are that defense demand is not directed solely toward traditional high-end platforms; incremental opportunities are more likely to emerge in software-defined command and control, AI and data fusion, unmanned and attritable systems, modular manufacturing, satellite communications, cybersecurity, advanced materials, and domestic supply-chain substitution. Traditional prime contractors still retain advantages in platforms, certification, and government relationships, but they need to open architectures, shorten development cycles, and absorb commercial technologies; emerging defense technology companies have speed and software advantages, but they must prove their capabilities in mass production, compliance, and sustained delivery.

Risks

• The shrinkage of tier-2 and tier-3 suppliers is creating bottlenecks in key components, materials, propulsion, electronics, and tooling.
• The supply chain is exposed to China-related critical materials, processing links, and components; geopolitical conflict, export controls, or market manipulation could cause disruptions.
• Major defense programs have overly long development cycles, and procurement processes are mismatched with the rapid iteration speed of software, electronics, and unmanned systems.
• High prime-contractor concentration may suppress competition, alternative production lines, and cost-driven innovation.
• The PPBE budget cycle, and friction over intellectual property and data rights, may weaken the effectiveness of MOSA, commercial-first, and modular reform.
• The ability of emerging defense technology companies to move from innovative prototypes to large-scale manufacturing remains unproven.
• If high-end platforms, attritable hardware, and software systems develop in parallel but fail to integrate, duplicate investment and operational fragmentation may result.
• In A2AD, cyberwarfare, electronic warfare, and degraded-connectivity environments, the resilience and real-time performance of command-and-control systems are under pressure.

What to watch

• Whether JADC2, MOSA, and Commercial First policies truly change procurement, data-rights, and vendor lock-in issues.
• Whether emerging defense technology companies can win larger contracts and achieve auditable, scalable, and sustainable delivery.
• Whether traditional prime contractors can absorb software and unmanned-system capabilities through open architectures, acquisitions, partnerships, or internal transformation.
• Progress in expanding tier-2 and tier-3 supply-chain capacity, de-risking key materials, and replacing supply with domestic or allied sources.
• Changes in orders and production capacity for drones, robotics, counter-drone systems, directed energy, satellite communications, AI command and control, and advanced manufacturing.
• The production-capacity gap between the United States and China in shipbuilding, missiles, low-cost unmanned systems, electronic warfare, and A2AD-related capabilities.
• Whether PPBE- and NDAA-related institutional reforms shorten program cycles and allow faster software updates.
• Changes in the mix between high-end platforms and low-cost attritable systems in operational exercises and budget allocations.