Industrial Inertia: How the Absence of Innovation Capability in U.S. Naval Shipbuilding Undermines Strategic Competition
Every declining American industry, before it experiences a crisis or collapse, exhibits the same three barriers to building innovation capability. First, cultural resistance manifests as claims that their products are fundamentally different and thus require unique processes. Second, structural isolation from competitive pressure allows them to claim that market dynamics don't apply to their special circumstances. Third, organizational inertia disguises itself as incremental reform while systematic capability-building fails.
Detroit's automakers exhibited all three barriers in the late 1970’s just two years before Chrysler's government bailout and a decade before GM's near-collapse forced a fundamental transformation. [i] U.S. Steel exhibited them in the mid-1980s, just before losing three-quarters of its market share to foreign competitors and domestic mini-mills. [ii] The pattern is consistent across sectors, eras, and technologies. Industries lacking innovation capability sound identical regardless of their specific circumstances. U.S. naval shipbuilding exhibits all three barriers today.
The US Shipbuilding Innovation Capability Deficit
U.S. naval shipyards lack the capability to adopt new construction innovations that are standard practice in Korean, Japanese, and Chinese military shipbuilding. Examples of these innovations include modular construction techniques, digital twin technology, automated welding and fabrication systems, and integrated CAD/CAM systems connecting design directly to manufacturing. [iii] These are not experimental technologies. Allied shipyards, which build sophisticated destroyers and submarines, deploy these innovative manufacturing methods routinely. [iv] The failure to adopt proven methods reveals an innovation capability deficit, not merely resistance to specific technologies.
The resulting productivity gap is stark and measurable. American destroyers cost $2.2 billion [v] compared to $920 million for comparable Chinese vessels [vi], a 2.4-to-1 disadvantage. On a labor and construction cost basis, U.S. shipyards cannot compete with foreign yards. [vii] Construction timelines reflect similar disparities. American destroyers require five to seven years from contract to delivery [viii], while Chinese yards complete equivalent vessels in two to three years. [ix] These metrics translate directly into strategic disadvantage. China's naval shipyards launched more tonnage in 2024 than American yards had commissioned in the previous five years combined, building a 370-ship fleet, while U.S. projections project 280-290 ships by 2035. [x] This widening gap reflects not just current technological differences, but the compounding advantage of continuous innovation capability versus its absence.
Barriers to Innovation Capability
The first barrier to building innovation capability is cultural resistance manifested as claims of unique complexity. Many industries lacking innovation capability claim their products are fundamentally different and thus require unique processes that prevent the adoption of proven methods. Detroit claimed in 1980 that the Japanese couldn't build complex cars meeting American performance and safety demands. [xi] U.S. Steel asserted in 1985 that mini mills couldn't make structural steel for bridges and buildings. [xii] The same argument is being made today, as shipbuilders claim naval specifications prevent the use of commercial methods.
Korean and Japanese shipyards build Aegis destroyers and submarines to nearly the same military specifications as U.S. vessels, utilizing modular construction and automation, which reduces costs by approximately half. [xiii],[xiv] If complexity had prevented modern methods, Allied yards would not have been able to achieve this. Allied yards prove that complexity is an excuse, not a reason precluding the use of modern methods. Cultural resistance, which claims uniqueness, is the first barrier that industries must overcome to build innovation capability.
The second barrier to innovation capability is organizational inertia disguised as incremental reform. Failing industries point to minor initiatives to claim capability-building is underway, while fundamental transformation fails to occur. In the late 1970’s US automakers were facing significant competition from the Japanese auto industry. While Japanese automakers were building cheaper, more fuel-efficient cars and embracing new manufacturing technologies, US companies were making minor design tweaks to their heavy, antiquated designs. [xv]
Shipbuilding today points to the Public Shipyard Optimization Plan, some fixed-price contracts being tried, and digital initiatives being explored. [xvi] After 10+ years of "reform efforts," cost overruns remain high on major programs, schedule delays remain multi-year, and China's advantage continues growing. [xvii] Organizational inertia prevents the systematic investment in workforce development, infrastructure modernization, and process transformation necessary to build innovation capability. Incremental reform without capability-building infrastructure merely delays inevitable decline.
The third barrier to innovation capability is structural isolation from competitive pressure, enabling claims that market dynamics don't apply. Protected industries assert their special circumstances exempt them from forces that build innovation capability in competitive sectors. Airlines before 1978 claimed aviation was too critical for competition. [xviii] Following deregulation, market forces eliminated redundancy and forced innovation in the airline industry.
Shipbuilding claims that national security requires a domestic monopoly and continues to operate without consequences for efficiency failures. The absence of market competition doesn't mean the absence of capability-building mechanisms. Policy must create the competitive pressure that builds innovation capability in commercial industries. WWII War Production Board created accountability through performance requirements and contract termination authority without market competition, rapidly building industry capability through government direction. [xix] Well-crafted policy can simulate the competitive pressure that builds innovation capability.
Why Innovation Capability Barriers Persist: Systemic Factors
These three barriers to innovation capability are universal, but industries maintain them when structural factors protect inefficiency from consequences. The automotive industry abandoned these barriers when market pressure overwhelmed denial, building innovation capability through forced transformation. Shipbuilding maintains them because four systemic factors prevent the ecosystem conditions necessary for capability development: cost-plus contracting, monopoly market structure, captive customer dynamics, and governance fragmentation.
Cost-plus contracting removes the financial incentive for capability-building. Shipyards profit from billable hours rather than productivity gains, making capability investment financially irrational. Structurally, adopting automation reduces labor hours and therefore revenue. A monopoly market structure eliminates the competitive pressure that drives capability development. With only two submarine yards, two carrier yards, and three destroyer yards, no shipyard risks losing contracts to competitors with superior capability. The Navy as a captive customer cannot threaten to buy elsewhere despite inefficiency, forcing continued payment regardless of capability deficits. Fragmented governance across DoD, DOT, and Commerce means no single entity owns capability-building strategy. Each agency points to narrow initiatives while systematic capability development fails to occur.
These structural factors mean barriers to innovation capability persist not because they're valid, but because no forcing mechanism exists to make them untenable. Rational actors maintain barriers to capability-building when consequences don't exceed the comfort of the status quo. Industries build innovation capability only when structural factors create irresistible pressure for transformation.
Evaluation: Long-Term National Security Implications and Competitive Disadvantage
While U.S. shipbuilding maintains barriers to innovation capability, China systematically built it through state-directed ecosystem development from 2000-2020. China's approach demonstrates how deliberate policy can create the structural conditions necessary for innovation capability. Competitive pressure through performance requirements and contract competition among state-owned enterprises eliminated isolation from market forces, capital availability through directed state investment in infrastructure modernization that overcame organizational inertia.
Chinese shipyards are now innovating continuously, rather than resisting innovation, by adopting modular construction, digital integration, and automation as routine practices rather than exceptional efforts. This self-sustaining innovation capability compounds over time. China doesn't just build more ships faster and cheaper today. It possesses the ecosystem infrastructure to continue improving productivity while U.S. capability stagnates. The 2024 construction gap reflects this capability differential more than current technology differences.
Policy Implications: Building Innovation Capability Through Ecosystem Intervention
Without market forces to compel capability-building, policy must create artificial forcing mechanisms that make maintaining capability deficits costlier than systematic transformation. Through technology transfer mandates, performance requirements, and contracting reform, and long-term modernization commitments, the US government can ensure that its domestic shipbuilding ecosystem generates a culture of innovation capable of supporting long-term strategic goals.
Technology Transfer Mandates. Partnerships with Korean and Japanese yards, similar to the GM-Toyota NUMMI joint venture [xx], could address cultural resistance by demonstrating that modern methods build capability with military specifications. NUMMI proved the Toyota Production System could build innovation capability with American UAW workers in American plants, demolishing claims of cultural incompatibility. Mandatory technology transfer programs and embedding U.S. shipyard workers in allied yards would provide equivalent proof for naval shipbuilding while building domestic capability through knowledge transfer.
Performance Requirements and Contracting Reform. Tying contract renewals to productivity metrics and shifting from cost-plus to fixed-price contracts address structural isolation by simulating competitive pressure that builds innovation capability in market-driven industries. This approach creates artificial market pressure: fixed-price contracts make capability investments profitable, creating consequences for capability deficits. The automotive industry built innovation capability only when bankruptcy threat created consequences. This policy creates equivalent pressure, forcing systematic capability-building rather than allowing continued structural isolation.
Long-Term Modernization Commitment. A fifteen-year plan with guaranteed funding addresses organizational inertia by providing certainty for capability-building investment while preventing incremental reform that substitutes for systematic transformation. Shipyards point to optimization plans as evidence that capability-building is underway, yet productivity gaps remain unchanged. This is an example of organizational inertia disguised as progress. Guaranteed long-term funding at a sufficient scale could eliminate the organizational inertia excuse by removing the uncertainty that enables marginal approaches to substitute for systematic capability-building.
Conclusion
Every declining American industry exhibits the same barriers to building innovation capability. From cultural resistance claiming unique complexity to organizational inertia disguised as incremental reform, the pattern teaches that barriers to innovation capability are universal symptoms of industries lacking the ecosystem conditions for sustained innovation. Industries overcome these barriers only when consequences exceed the comfort of status quo inertia.
Market forces create those consequences for commercial industries. Policy must create them for defense industries isolated from competitive pressure. The question is not whether American industry can build innovation capability, but whether policy will create the forcing mechanisms that build capability before a crisis does. While the U.S. debates whether to overcome barriers to capability-building, China's capability advantage grows annually, resulting in an expanding fleet size, decreasing costs, and accelerated construction timelines that influence strategic competition outcomes.
Shipbuilding faces a choice between controlled capability-building now or chaotic capability-building later. The automotive industry had fifteen years to gradually build an innovation capability. The barriers to capability-building are predictable, the crisis is predictable, and the only question is whether policy will force systematic capability development before crisis forces chaotic transformation. Detroit learned this lesson through a near-death experience. The Pentagon must learn it faster, recognizing that innovation capability determines long-term strategic competition outcomes.
[i] Hyde, Examining Chrysler’s 1979 Rescue, All Things Considered, NPR, 12 November, 2008, https://www.npr.org/2008/11/12/96922222/examining-chryslers-1979-rescue
[ii] Fruhan, William E., Jr. "Restructuring the U.S. Steel Industry." Harvard Business School Case 203-042, October 2002. (Revised June 2003.)
[iii] RDML Todd Weeks, How Technological Innovation is Key to Shipbuilding Capacity, Proceedings, Vol 151/2, June 2025, https://www.usni.org/magazines/proceedings/2025/june/how-technological-innovation-key-shipbuilding-capacity
[iv] Ibid
[v] Geoff Ziezulewicz, Cost of Navy’s Newest Arleigh Burke Destroyers is Ballooning, 8 January, 2025, The War Zone, https://www.twz.com/news-features/cost-of-navys-newest-flight-iii-arleigh-burke-destroyers-is-ballooning
[vi] Marielle Descalsota, Take a Look. .., 27 September 2022, https://www.businessinsider.com/china-navy-destroyers-photos-fleet-list-2022-9
[vii] Maj Jeffrey Seavy, The United States Must Improve its Shipbuilding Capacity, February 2024, Proceedings.
[viii] CBO Report, An Analysis of the Navy’s 2025 Shipbuilding Plan, January 2025, https://www.cbo.gov/publication/61155
[ix] Curits Lee, China now has 8 Type 055 Destroyers in Active Service, 27 April 2025, Naval News, https://www.navalnews.com/naval-news/2023/04/china-now-has-8-type-055-destroyers-in-active-service/
[x] Cathalijne Adams, China’s Shipbuilding Capacity is 232 Times Greater than that of the United States, 18 September 2023https://www.americanmanufacturing.org/blog/chinas-shipbuilding-capacity-is-232-times-greater-than-that-of-the-united-states/
[xi] Robert Kaiser, Detroit and Future Shock, 18 February 1980, Washington Post, https://www.washingtonpost.com/archive/politics/1980/02/19/detroit-and-future-shock/c23040f1-ac00-4bba-9a40-3125e541ed00/
[xii] NPR, How Big Steel in the US Fell, March 20, 2024, Podcast, https://www.npr.org/transcripts/1197958509
[xiii] Henry Carroll, Cynthia Cook, Identifying Pathways for US Shipbuilding Cooperation with Northeast Asian Allies, May 15, 2025.
[xiv] Brian Potter, Lessons from Shipbuilding Productivity, Part II, Construction Physics, https://www.construction-physics.com/p/lessons-from-shipbuilding-productivity-4b9
[xv] Clark, K.B., Chew, W.B., & Fujimoto, T. (1987). "Product Development in the World Auto Industry," Brookings Papers on Economic Activity, No. 3, pp. 729-771 https://www-jstor-org.nduezproxy.idm.oclc.org/stable/2534453?seq=48
[xvi] NAVSEA, Building the Shipyards the Nation Needs, Accessed 16 November 2025, https://www.navsea.navy.mil/Home/Shipyards/SIOP-old/SIOP-Program-Overview/
[xvii] GAO, US Navy Shipbuilding Is Consistently Over Budget and Delayed, 08 April 2025, https://www.gao.gov/blog/u.s.-navy-shipbuilding-consistently-over-budget-and-delayed-despite-billions-invested-industry
[xviii] Mark Walker, Deregulation of the US Airline Industry, 2023, Accessed 13 November 2025.
[xix] Nagle, James F. 1992. A History of Government Contracting / James F. Nagle. George Washington University.
[xx] Willy Shih, Knowledge Transfer: Toyota, NUMMI, and GM, July 2024 (Revised October 2024), Harvard Business Review, https://www.hbs.edu/faculty/Pages/item.aspx?num=66104