Tag Archives: featured

Russia’s Strategic Brown Water Capabilities: A NATO Blind Spot?

By Helge Adrians

Russia is working to integrate inland waterways more deeply into its deterrence and defense posture. In Western contexts, this area of maritime geography is usually termed the brown water zone.’ A harbinger of that development was the October 2015 strike against positions of Islamist groups in Syria, carried out by small warships in the Caspian Sea using land-attack cruise missiles (LACMs). Russia not only demonstrated a new level of operational reach (of over1 1,500 kilometers), but also revealed a singular capability that remains unmatched to this day – executing deep precision strikes (DPS) from inland waters.2

Indications that the Russian Navy could carry out such an operation from lakes and possibly even rivers had emerged a few years prior. As part of the State Armaments Program for 2007-2015, Russia started outfitting many of its naval vessels with a new, long-awaited universal vertical launch system (VLS). Like the US MK 41 VLS — which has been in use since 1986— the Russian 3S14 VLS is designed to accommodate different types of missiles (rather than using specialized tubes for each missile type, as was previously the case on Soviet and Russian warships)3. The outfitting included river-capable Buyan-class corvettes, of which a modified batch with an eight-cell VLS was built from 2010—the Buyan-M class, sometimes also called Sviyazhsk-class.4 Two years later, the 3M14 LACM—a variant of the Kalibr family of missiles—was introduced on surface warships. One of the first units was the Gepard-class frigate Dagestan, which is part of the Caspian Flotilla. The formation also received the first three Buyan-M class corvettes, commissioned in 2013.

The reinforcement of the Caspian Flotilla was no coincidence. It was closely linked to the naval build-up of the three former Soviet republics Azerbaijan, Kazakhstan, and Turkmenistan from the mid-2000s. The motivations behind this trend were twofold – a growing interest amongst the littoral states in exploiting the Caspian Sea’s economic potential, and the ambiguity surrounding its legal status at that time, particularly concerning maritime borders and access rights. Despite its scale resembling a marginal sea, the Caspian Sea is in practical terms an inland lake.5

Russia’s military port of Kaspiysk on the Caspian Sea. (Google Earth image via TWZ.com)

Although Western observers were aware of these two developments — ‘Kalibrization’ of the Russian Fleet and strengthening the combat power of forces of an inland water body — it seems they failed to derive the correct insights. For example, the Intermediate-Range Nuclear Forces (INF) Treaty, concluded with the United States in 1987, prohibited land-based medium-range missiles, but not sea-based ones. This explains why Russia’s strike in October 2015 caused such significant surprise. As is often the case with such events, many of the subsequent analyses focused on the political implications and the technologies used, while paying less attention to the underlying conceptual framework.

New strategic importance of Russia’s inland waters

Russia’s inland waterways hold strategic significance. This is due to three reasons: first, the country has a large number of rivers spread across its entire territory; second, many of them are long and wide, well-suited for transporting cargo; and third, most of the rivers lie entirely within Russian borders, making them less accessible to Western intelligence. That may have been one of the reasons why the Soviet Union connected the waters west of the Urals in the mid-20th century. At the center is the Volga River, which flows into the Caspian Sea. Through the construction of canals, the Volga was also linked to the Baltic Sea and the White Sea in the North, and to the Black Sea in the South.6 This network is most commonly referred to as the Unified Deep Water System of European Russia (UDWS).

Map of the United Deep Waterway System of Russia. (Graphic via Wikimedia Commons)

From the earliest days of the Cold War, there were discussions within NATO about the military utilization of the UDWS. However, this was more about the possibility of moving single warships, especially submarines, between the northern and the southern flank covertly and thus protected from NATO attacks. To this day, Russia maintains naval shipbuilding at several shipyards along the Volga River. Until the 1990s, even Kilo-class submarines were constructed at a facility there.

Fitting river-capable corvettes with 3M14 LACMs and using them from the Caspian Sea has fundamentally altered strategic assessments of the UDWS, from a useful logistical corridor to an inland naval bastion. However, the capability to carry out DPS from such an unexpected location seems less the outcome of deliberate planning. It was more a consequence of budgetary limitations as a result of the collapse of the Soviet Union in 1991 and the Russian financial crisis in 1998.7 Faced with the need to maintain its nuclear-powered ballistic missile submarines (SSBNs), Russia was forced to make cuts in surface fleet development. Enhancing the operational reach of so-called third-rank combatants like corvettes, traditionally used for operations in the littoral ‘green water,’ or as they say in the Russian Navy – ‘near sea’ zone – emerged as a pragmatic and creative compromise, particularly against the backdrop of the INF Treaty, which was in effect until 2019.8,9 Amongst these are the aforementioned Buyan-M class and its more advanced successor, the Karakurt-class, of which several examples have been commissioned since 2018. 

Searching for safe spaces

Following Russia’s full-scale invasion of Ukraine in February 2022, naval platforms became part of the ground campaign through the use of 3M14 LACMs. Initially, such strikes were launched from the Black Sea. By end of December 2022, the Caspian Sea—far away from the frontlines—had also become a launch area for these operations. As Ukraine gradually managed to keep the Black Sea Fleet at distance through a combination of shore-based anti-ship missiles, sea mines, and later—with growing intensity since summer 2023 at the latest—uncrewed surface vessels (USVs), the strategic relevance of the Caspian Sea grew. It not only served as a safe space for continued DPS but also as a hub for repairing and replacing damaged ships.

The expanded use of uncrewed systems in the war against Ukraine plus Western intentions to acquire such platforms have made secure maritime areas increasingly vital for the Russian Navy. However, those are scarce. During the Cold War, Soviet fleets relied on an ‘area denial’-strategy (AD),10 also known as the ‘Bastion’-concept with regard to the defense of the bases of the Northern and the Pacific Fleet where Russia continues to concentrate its SSBNs. The extended defense of this protected space can be described as an ‘anti-access’-approach (A2). Long before the term ‘A2/AD’ was coined by Western analysts in 2003 and became a buzz word from 2014, Moscow had already developed the necessary capabilities as a lesson learnt from World War II (mainly a large long-range aviation and submarine force).11,12 These platforms threatened opposing surface warships, which could be detected and targeted before reaching Soviet positions. Even fleets in marginal seas were enabled to perform A2/AD. A renaissance came with the introduction of various land-based long-range missile systems from around 2012.13 For a long time, Western nations appeared to have little means to counter these A2/AD capabilities. Unmanned systems may offer a solution, as the Ukrainian armed forces have repeatedly demonstrated in the air and in the maritime domain. Due to their small size and design, uncrewed systems have low signatures. Consequently, they are frequently able to penetrate Russian defense layers unrecognized. As a result, the retreat of warships into protected areas under full Russian control—including the UDWS—appears to be the only viable option to safeguard against new asymmetric threats such as USVs and uncrewed underwater vehicles (UUVs).

In light of this, the Russian Navy has adapted for better protection, starting with the creation of a new naval district for the Sea of Azov in July 2023. Situated north of the Black Sea, it is a shallow shelf sea accessible primarily via the Kerch Strait, which Russia has controlled since annexing Crimea in March 2014. In the early stages of the invasion of Ukraine in 2022, Russian forces succeeded in closing the gap between Donbas and Crimea. Since then, Russia has gained full control over the Sea of Azov. One of the main reasons for this approach may have been that there is access to the UDWS via the Don River, which flows into the north-west. In the Sea of Azov, Russian warships are less exposed to Ukrainian attacks than in the Black Sea. This made the maritime enclave appear suitable, amongst other things, as a launch area for corvettes with LACMs.

Efforts to identify secure maritime spaces were also observed in other regions: in the east of the Baltic Sea, the Russian Navy appears to be planning to open up Lake Ladoga—situated north of St. Petersburg—as a fallback area for small warships. Covering nearly 18,000 square kilometers, it is the largest inland body of water in Europe. Since Finland’s defeat in the Second World War, it has been completely surrounded by Russian territory14 and became part of the UDWS. During the Cold War, the lake’s remoteness made it a strategically valuable site for naval testing, playing a role comparable to that of the Caspian Sea. Now, according to Russian media, it is set to become a component of Moscow’s deterrence and defense posture vis-à-vis NATO. For this, two Karakurt-class corvettes of the Baltic Fleet were deployed to Lake Ladoga for several days in September 2023, followed by two Buyan-M class vessels for a similar duration in September 2024.15 While in the first year the focus lay on navigation training and surveying former naval mooring sites repurposed by Russian state-owned defense companies, the second year was reportedly marked by notional launches of 3M14 LACMs as part of the major naval exercise Okean 2024.16

In Russian media, there have been discussions about bolstering forces for brown water operations. This was sparked by a March 2024 announcement from the then Russian Minister of Defense, stating plans to reconstitute a Dnieper Flotilla by the end of the year—intended to take over riverine combat duties from the ground forces. Such formations have existed intermittently since the 18th century, most recently until 1951. The Soviet Union also operated similar groupings on other major rivers. Russia has taken over some of them. The last major command was the Amur Flotilla at the Russian-Chinese border in the Far East: it was transferred to the Border Service in 1995 and formally disbanded in 1998. Apart from that, a sizable shipyard still exists on the Amur River, which also builds Karakurt-class corvettes. However, it is not yet known to what degree these will be deployed from there and whether Russia intends to build up further riverine units.

Amur River basin. (Graphic via Wikimedia Commons)

Decisive, complementary impact without salvos

The extent to which the Russian Navy attributes a strategic role to inland waters is currently connected to the deployment of Buyan-M and Karakurt-class corvettes. Nevertheless, the presence of these vessels beyond the usual duration of a transit is better understood as a sign that changes might be underway, rather than definitive evidence that a change has already taken place. This is because, although the corvettes can strike far-off targets using 3M14 LACMs, they are limited to carrying just eight per ship. However, in conjunction with long-range and decoy UAVs that could saturate air defenses, these assets enable surgical strikes or DPS, respectively, against select targets, particularly critical infrastructure. This reflects the ‘Strategic Operation for the Destruction of Critically Important Targets’-approach outlined in Russian military theory around 2010. The concept is to discourage an adversary from escalating or continuing a conflict by selectively destroying high-value targets, aiming to impact political or societal morale without causing mass casualties. This behavior has been repeatedly demonstrated in Russia’s war against Ukraine.

Such effects could also be achieved through ground- or air-based systems. In this context, warships should be seen as a supplement — particularly when other assets are absent or limited. One example is the Russian part of Karelia, an area east of Lake Ladoga, where Moscow only recently began expanding its ground force presence in 2024, following Finland’s accession to NATO in 2023, leaving the area initially lacking adequate deterrence capabilities.17 Even though Lake Ladoga is seasonally unusable due to ice cover, it can nonetheless be utilized temporarily for defensive or deterrent purposes.

The potential use of LACMs also serves to demonstrate the Russian Navy’s relevance in land operations—an aspect that should not be underestimated. Here, the focus is less on quantity but more on quality; internally, this reinforces the Navy’s standing within the Russian armed forces and political leadership, while externally, it contributes to strategic ambiguity by signaling that all branches of the military are capable of delivering long-range effects.

Closing NATO’s blindspot

Striking land targets from lakes offers several advantages. In addition to the protection against asymmetric threats, it also provides cover from reconnaissance and targeting by enemy missile systems. This is due to the stealthy design of the Buyan-M and Karakurt-class corvettes. When moving or hiding near shorelines, spotting, tracking, and targeting them becomes difficult. Moreover, engaging warships requires different types of munitions than those used against land-based systems like rocket launchers—specifically, warheads capable of penetrating hulls or superstructures to cause significant damage or achieve a kill. Most Western anti-ship missiles have limited range, typically only a few hundred kilometers, and travel at subsonic speeds over longer distances, making them easier to detect and intercept. Additionally, some anti-ship missiles designed for blue-water targets may struggle with targets amongst the cluttered shorelines of lakes and rivers.

While NATO may not prioritize countering Russian warships on lakes in a broader conflict scenario, the risk remains significant. Ukraine’s response offers a blueprint of what can be done. On the one hand, obstructing passage through chokepoints such as straits or locks can effectively trap warships or prevent them from entering. Since the start of the war, Ukraine has sought to block the Kerch Strait; for example, in July 2024, it targeted the nearby ferry terminal at Kavkaz from the air. According to the Ukrainian Navy, Moscow has withdrawn all warships from the Sea of Azov as a result.

On the other hand, the destruction of port infrastructure can disrupt the resupply of naval forces, particularly the reloading of missiles, which can only be done pier-side. Ukraine successfully struck Russian warships in the captured port of Berdiansk on the Sea of Azov in March 2022 as well as in the naval base at Kaspiysk on the Caspian Sea in November 2024. In the latter, both Gepard-class frigates and a Buyan-M class corvette would have been affected.

Ukrainian drones strike the naval base of the Russian Caspian Flotilla in November 2024. (Footage via Twitter/OSINT Technical)

There are also lessons to be learned from Russia’s tactics: in August 2025, it launched an attack on a Ukrainian reconnaissance vessel deep in a tributary of the Danube River. The vessel was reportedly underway in Ukrainian waters, just meters away from the opposite Romanian bank. Remarkably, Russia succeeded in covertly deploying a USV about 40 kilometers into the Danube to conduct the kamikaze strike, while coordinating a UAV to monitor the mission from the air (which could also have fired on the ship).

In principle, it seems possible that the Russian Navy may seek to enhance the strategic role of inland waters. The deployment of Kilo II-class submarines or the loading of 3M14 LACMs in the containerized Club-K version18 onto civilian riverboats are both conceivable, though unlikely due to the logistical complexity involved (because of, for example, river depths19 and currents20 as well as satellite connections). Instead, Russia is more likely to focus on better protecting its Buyan-M and growing Karakurt-class corvettes. Increasing their numbers and distributing them when at sea or over several supporting sites make detection significantly more difficult. This would allow Russia to maintain a strategic reserve for DPS.

Conclusion

NATO should not underestimate Russia’s strategic brown water capabilities. The same applies to Japan and South Korea in the event that Moscow, contrary to current indications, intends to use the Amur as a launch area to defend the Sea of Japan and the Sea of Okhotsk. Therefore, it is essential to prepare doctrinally, enhance surveillance techniques, and develop effective countermeasures. This will require more unconventional thinking—for example, the dropping of sea mines, USVs and UUVs from the air or the arming of partisans with portable anti-ship missiles such as the Swedish RBS-17. New doctrine and capabilities can effectively account for this important yet underappreciated dimension of Russian naval influence.

Commander Helge Adrians, German Navy, M.A., is a Visiting Fellow at the German Institute for International and Security Affairs.

References

1. 3M14 should be able to fly up to 2,500 kilometers, according to [U.S.] State Department, Bureau of Arms Control, Verification and Compliance (2020): 2020 Adherence to and Compliance with Arms Control, Nonproliferation, and Disarmament Agreements and Commitments (Compliance Report), online in: https://2017-2021.state.gov/wp-content/uploads/2020/06/2020-Adherence-to-and-Compliance-with-Arms-Control-Nonproliferation-and-Disarmament-Agreements-and-Commitments-Compliance-Report-1.pdf (PDF file), June 2020 (accessed: 26.12.2024), p. 14 and 16.

2. The distance from the Caspian Sea to the targets in Syria was given by the official Russian side as ‘nearly 1,500 kilometers’, cf. TASS (2015): Caspian Flotilla ships fire 26 cruise missiles on IS targets in Syria — Defense Minister [sic!], online in: https://tass.com/defense/826919, 07.10.2015 (accessed: 18.12.2024).

3. Cf. Bogdanov/Kramnik (2018), p. 6.

4.  Cf. Office of Naval Intelligence (2015): The Russian Navy. Historic Transition, Washington: N.p., p. 20.

5. For decades, the Soviet Union and Iran—the Caspian’s only littoral states until 1991—neglected to define its legal status. Only in 2018 did the five current coastal states reach an initial agreement (i.e., the Convention on the Legal Status of the Caspian Sea, also known as ‘Teheran Convention’), concluding that the Caspian Sea should be treated as neither a sea nor a lake in legal terms.

6. Cf. Jaghdani, Tinoush Jamali/Ketabchy, Mehdi (2023): The Strategic Significance of the Russian Volga River System, in: Russian Analytical Digest, Vol. 304, pp. 22-27, here: p. 22.

7. Cf. Mommsen, Klaus A. R. (2020): The Russian Navy. “Russia’s pride, strength, and asset”, in: Routledge Handbook of Naval Strategy and Security, edited by Krause, Joachim/Bruns, Sebastian (2018), Abingdon/New York: Routledge, pp. 305-314,
here: p. 307.

8. Cf. Kofman, Michael (2023): Evolution of Russian naval strategy, in: The sea in Russian strategy, edited by Monaghan, Andrew/ Connolly, Richard (2023), Manchester: Manchester University Press, pp. 94-123, here: p. 109.

9. For example, the delays in delivering the first two Admiral Grigorovich-class frigates in 2015 prompted a shift in focus toward building Karakurt-class corvettes instead, cf. РИА Новости (2015): Минобороны заявило, что ОПК “немножко сорвал” срок сдачи двух фрегатов, online in: https://ria.ru/20151224/1348076684.html, 24.12.2015 (accessed: 19.08.2025).

10. Cf. Ushirogata, Keitaro (2025 in English; 2019 in Japanese): Global Maritime Military Strategy. 1980-2023, Singapore: Springer, p. 128 ff.

11. This was related to the fact that the US developed a new strategy to deprive Chinese A2/AD-capabilities. Russia and Iran were also credited with such capabilities, making the issue more relevant for European NATO members, especially as there were fears after the occupation and annexation of Crimea that Russia could do the same with the Baltic states and make defence more difficult by activating A2/AD-systems, cf. Simón, Luis (2016): A European Perspective on Anti-Access/Area Denial and the Third Offset Strategy, online in: https://warontherocks.com/2016/05/a-european-perspective-on-anti-accessarea-denial-and-the-third-offset-strategy/, 03.05.2016 (accessed: 27.08.2025).

12. Cf. Gorschkow, Sergej (1976): Seemacht Sowjetunion, edited by Opitz, Eckardt (1978), Hamburg: Hoffmann & Campe, p. 266.

13. In 2012, the S400 air defence system, which entered service in 2007, was stationed in Kaliningrad—the first of the three missile systems primarily linked to A2/AD, cf. Dalsjö, Robert/Berglund, Christofer/Jonsson, Michael (2019): Bursting the Bubble. Russian A2/AD in the Baltic Sea Region. Capabilities, Countermeasures, and Implications (FOI-R–4651–SE), p. 27. The other two systems are Iskander (both the -M and -K version) against land targets, and Bastion-P against sea targets, cf. ibid., p. 10.

14. In late 1939, the Soviet Union demanded territory from Finland, citing the security of Leningrad (now Saint Petersburg) as a primary justification. After Finland refused, the Soviet Union invaded in November. The war ended in March 1940 with the Moscow Peace Treaty and the formerly shared Lake Ladoga became entirely surrounded by Soviet territory. Though contested during the 1941–1944 war, this control held. This outcome was formally recognized in 1947 with the Paris Peace Treaty that formally established Lake Ladoga as a Soviet inland lake under international law.

15. It was the Sovetsk (hull number: 252) and the Odintsovo (252), see the report ‘Baltic Fleet on Ladoga’ in: https://vpk.name/en/ 784930_baltic-fleet-on-ladoga.html 16.10.2023 (accessed: 24.11.2024). This is the English translation of the original Russian article by Timur Gainutdinov, published on Krasnaya Zvezda. The original text was published online but is not accessible from within Germany, cf. http://redstar.ru/na-sedoj-ladoge/. However, the Norwegian military blogger Thore Are Iversen uploaded the article and another English translation to X; see corresponding images at https://x.com/The_Lookout_N/status/ 1714640171176493411, 18.10.2023 (accessed: 27.12.2024).

16. One them could be the former naval base Lakhdenpokhya in the north west of the lake, cf. Ryabov, Kirill (2023): “Karakurt” on Lake Ladoga, online in: https://en.topwar.ru/228351-karakurty-na-ladozhskom-ozere.html, 19.10.2023 (accessed: 24.11.2024). Otherwise, the corvettes were moored at the floating bridge in Priozersk, as satellite images showed, see the Tweet by Thore Are Iversen in: https://x.com/The_Lookout_N/status/1833800057469952169, 11.09.2024 (accessed: 28.12.2024).

17. It was only in April 2024 that Russia announced its intention to station three missile artillery battalions equipped with the Iskander-M system in Karelia, see report ‘В Карелии сформирована отдельная ракетная бригада с ОТК «Искандер-М»0‘, in: https://iz.ru/1684603/2024-04-19/v-karelii-sformirovana-otdelnaia-raketnaia-brigada-s-otk-iskander-m, 19.04.2024 (accessed: 12.01.2025).

18. However, ‘[t]he current status of the Club-K system is unclear, and there is no public evidence that russia [sic!] has commenced serial production of this system’, cf. Syngaivska, Sofiia (2024): New Icebreaker Showcases russia’s [sic!] Advanced Naval Technology, Allegedly Suitable for the Kalibr Missiles, online in: https://en.defence-ua.com/weapon_and_tech/new_icebreaker_ showcases_russias_advanced_naval_technology_allegedly_suitable_for_the_kalibr_missiles-10743.html, 05.06.2024 (accessed: 26.08.2025).

19. Kilo-class submarines were usually deployed on barges across rivers, see the following undated photo in https://imgur.com/a/ lYRJeAO, 12.12.2023 (accessed: 04.01.2025). The link was shared in a discussion on Reddit, see https://www.reddit.com/r/ submarines/comments/18g02tl/how_submarines_built_in_nizhny_novgorod_were/, n.d. (presumably 2024; accessed: 04.01.2025). In 2021, a decommissioned November-class nuclear submarine was even transported via the White Sea-Baltic Sea Canal, see https://paluba.media/news/11667, 21.09.2021 (accessed: 16.01.2025).

20. Even smaller warships are therefore accompanied by tugs, as can be seen in a video showing the Karakurt-class corvette Taifun (805) on its way to Lake Ladoga in 2019, see https://www.youtube.com/watch?v=jZ7uYoh-hXg&t=1s, 20.05.2019 (accessed: 03.01.2025).

Featured Image: Buyan-M-class corvette of the Russian fleet, December 2022. Russia. (Photo via Ministry of Defense of the Russian Federation)

Leading the Digital Fight: How the Navy’s IW Community Must Innovate to Win

By Shane Halton and Adam Reiffen

“When companies spend millions of dollars on new information technologies but don’t change anything else, there are usually barely detectable productivity improvements. In contrast, when they also invest similar amounts in business process changes and in worker training, productivity can double or more.-The Second Machine Age: Work, Progress, and Prosperity in a Time of Brilliant Technologies by Andrew McAfee and Erik Brynjolfsson

In the last year, Israel disabled all of Iran and Hezbollah’s senior military leadership at a stroke with a series of audacious precision strikes. Ukraine launched hundreds of small drones against Russia’s strategic air assets from clandestine launch locations deep inside Russian territory. Though the weaponry and tactics employed in these strikes varied wildly from explosive pagers to first person view (FPV) drones, one common thread tied these operations together – innovation in the realm of Information Warfare (IW). From the Levant to the Black Sea, the crucial role played by IW (hereafter used collectively to refer to the intelligence, cryptology, information technology, meteorology/oceanography, cyber, and space communities) has never been more impactful to warfighting than it is today.

The US Navy has adjusted accordingly to this changing character of war. In 2024, the Navy moved Information Warfare (IW) out of the Restricted Line officer category and into a newly minted Information Warfare Line (IWL) category, which serves to both acknowledge IW’s growing impact on operations and to open additional opportunities for leadership across the Fleet. This elevation offers the IW community an excellent chance to step back, assess its tactical strengths and weaknesses, and innovate where needed. 

If called upon today, could the Navy’s IW community deliver the same level of support to operations that the IDF and Ukrainian military receive from their respective military intelligence communities today? Surely it has the resources. The IW community has a workforce in the tens of thousands and close working ties with the national intelligence community. The DoW is making huge capital investments in AI solutions that should positively impact IW workflows. With all these resources available, is innovation even necessary? 

The answer is yes. Despite being well-stocked with talented personnel and appropriated funds, the Navy IW community aboard Carrier Strike Groups (CSGs), Amphibious Readiness Groups (ARGs), and at fleet-level Maritime Operations Centers (MOCs) still operate according to increasingly antiquated and inefficient business practices. Dozens of human analysts spend countless man-hours every day creating and editing PowerPoints. Others spend time using outdated search tools to answer requests for information (RFIs) from senior leadership, watchstanders, and other operators throughout the organization. Compounding these challenges is the structure of the information systems themselves, as critical information remains siloed in disparate databases, thwarting rapid retrieval, analysis, and automated fusion. The net effect of these overlapping issues is that the most data-centric part of the Navy, the Information Warfare Community, is today poorly postured to lead the Navy’s digital transformation and risks failing to effectively adapt to the modern maritime battlespace. 

Luckily for the Navy and the country at-large, there are several innovative initiatives underway across the naval IW enterprise that are showing us the way forward. These efforts, coupled with the thoughtful integration of commercially available AI solutions, offer Navy IW a once in a generation opportunity to increase productivity and output for relatively little cost. The solutions can be grouped into three categories: workforce, organizational reform, and technological solutions.

Workforce: Identifying and Cultivating Digital Talent

Walk into any MOC in the Navy and you may find an intelligent, bright-eyed young individual who identifies themselves as the command’s Chief Data Officer, or maybe Chief Technology Officer, or perhaps lead for Artificial Intelligence or Data Science. Press them a little further and they will happily explain to you that they started off at the MOC doing something entirely different but at some point they shared with their leadership that they had a technical background and could do some coding and voila they received a new job, a new set of responsibilities, and a direct line of communication to senior leadership. 

The positions of Chief Data Officer, Chief Technology Officer, AI Lead, etc. do not exist on any MOC manning documents. Still, those individuals are today found at every MOC in the Fleet. What is happening? The simplest answer is that the operational leadership at the MOCs realized they needed something that Big Navy was unable or unwilling to provide, then created new positions of their own accord by drawing from their own staffs. Every MOC did this independently, seemingly without coordinating across the Service. This is both an admirable example of deckplate innovation at the MOC-level and a fairly serious indictment of the Navy’s manpower challenges when it comes to manning a modern, digital workforce.

But the need for an innovative solution only highlights a Fleet-wide problem. The Navy lacks the ability to identify, employ, and retain digital talent (hereafter “digital” will refer to data science, data engineering, and artificial intelligence, broadly defined). There is one Navy Additional Qualifying Designator (AQD) for Data Science and it is only granted upon graduation from the Naval Postgraduate School’s (NPS) Data Science Program. There are no equivalent AQDs for artificial intelligence or other information- and data- related fields of study. The Navy currently has a much better understanding of which Sailors speak Hausa than which can code in Python, C++, or Java.

The easiest way for the Navy to address this issue is to leverage work already done by the DoW. The DoW’s Digital Workforce initiative, started by the DoW Chief Data and Analytics Office (CDAO) in 2022, generated multiple highly readable reports and useful insights for how to develop “digital talent” across the DoW. CDAO already did the hard work by creating language that could easily convert to Navy AQDs and Sub Specialty Codes (SSPs) related to data science, data engineering, software engineering, AI, etc. Once established, these AQDs and SSPs should be called out explicitly in board convening orders and other promotion criteria, making plain to both promoters and promotees that such skills are as much Navy priorities as Operations Research and Financial Management. The IW community can further lead in workforce development by serving as the community sponsor for innovative graduate certificate programs and “stackable” degrees delivered asymmetrically, including the recently-launched Master of Applied Computing program at NPS.

The AQD/SSP approach has the advantage of increasing the Navy’s oversight of who has which digital skills without unduly disturbing existing career paths, and allows detailers, commanders, and other senior leaders to quickly find and fit talent to key roles in the Fleet. Formally recognizing digital qualifications would have positive impacts on URL communities as well. For instance, an E-2D pilot with coding expertise can still be a pilot, but the Navy will also be aware that he or she has coding expertise, allowing that person to fill relevant billets, liaison roles, or collateral duties. Over time, this AQD/SSP approach will allow the formal creation of billets like the MOC Chief Data Officer and ensure that those billets are manned by qualified personnel. We believe the above recommendations are in alignment with the “Talent” section of the DoW’s January 9, 2026 AI guidance.

Organizational Reform Afloat and at the Fleets

In November 2022, Carrier Strike Group One (CSG-1), in collaboration with Project Overmatch, established the Navy’s first Data Science at Sea (DS@S) team empowered to use all available intelligence, battlespace, and operational data to address emerging warfare requirements. The DS@S team, cobbled together from volunteers around CSG-1 and its subordinate units, automated routine tasks and found novel ways to analyze, fuse, and visualize battlespace data over two deployments to the Western Pacific and the 2024 Rim of the Pacific (RIMPAC) exercise in Hawaii. This grassroots effort went on to inspire similar efforts through PACFLT and resulted in the generation of a classified TACMEMO from the Navy Information Warfare Development Center (NIWDC) detailing the initiative.1 

Over the teams’ nearly three years of operations on CSG-1, it partially or fully automated many IW processes across the Strike Group. The major lesson learned was not that you can do more IW work with fewer people – although this is true – but rather that the DS@S approach creates more bandwidth and time for meaningful human analysis. The DS@S team also developed several novel battlespace awareness and planning tools that are now commonly used by units across the Pacific.2

These teams cannot continue to operate on an ad hoc basis, however, and must be codified, trained, and employed with the same eye towards standardization as at any ESG or MOC across the Fleet. Activating reservists and peeling civilian shipriders away from other tasks has worked well enough to date but is not sustainable over time due to an ever expanding list of operational requirements with ever limited material and personnel resources. To generate consistent decision advantage, build skills over time, and be maximally responsive to the needs of the CSG, ESG, or MOC Commander, data science teams must have a permanent home, dedicated billets, and funding for both training and equipment. In May 2025, the Naval Postgraduate School hosted a summit with a variety of stakeholders to tackle these issues and explore how best to scale the DS@S initiative across the Fleet and “productionalize” the tools that the deployed teams develop.

Until now, the CSG-1 DS@S team has been housed within the Admiral’s staff, but the most natural fit for such a group is within the Information Warfare Commander (IWC) afloat construct. At present, the IWC is the senior member of the IW community embarked with the CSG, but as a member of the Admiral’s staff is without ADCON of any personnel and OPCON of only a select few. The exact nature of the IWC’s roles and responsibilities varies between CSGs based on commander’s discretion. The lack of job standardization and formal authorities (i.e., budget, NJP) for IWCs across the Fleet has hamstrung the role. 

There is an effort underway to address the structural weakness of the current IWC construct. In December 2025, Naval Information Forces (NAVIFOR), the TYCOM for IW across the fleet, established two Information Warfare Squadrons or IWRONs. These IWRONs are designed to “addresses the increasing complexity and sophistication of global threats, which actively seek to exploit vulnerabilities from seabed to space.”3 It is critical that these new IWRONs establish DS@S teams as a Department within the command. Should these pilot IWRON initiatives succeed, they should be replicated both ashore at the MOC (as previously discussed) and afloat at the Navy’s Amphibious Readiness Groups (ARGs). In this construct, the DS@S team would have the personnel, budget, hardware, and authorities to operate continuously as a digital innovation hub for the entire CSG. The IWC could even dispatch the team to work with allies and partners, as the CSG-1 DS@S team did with its French counterparts aboard ships within the CHARLES DE GAULLE Strike Group during the PACIFIC STELLER series of exercises in early 2025.4

Technological Transformation: Leveraging AI and Data

First airing in 1966, Gene Rodenberry’s Star Trek imagined a future where technology had completely redefined the human experience, allowing us to explore the universe with a fleet of massive spacecraft. One thing that the starship Enterprise did not have was an Intelligence Officer. If someone wanted to know a specific scientific fact, the capabilities of Klingon ships or the location of the nearest spaceport, they asked “Computer.” The US Navy is not quite there yet, but we’re much closer now than ever. In July 2025, the DoW announced it was granting contract awards of up to $200 million for artificial intelligence development at Anthropic, Google, OpenAI and xAI.5 Not all of that money will directly impact Navy priorities, nor will it be immediately available to afloat units, but we are getting very close to the day when almost all classified RFIs can be answered by a Large Language Model (LLM) connected to every SIPR and JWICS on a ship. Secretary Hegseth’s December announcement of GenAi.mil is a welcome step towards realizing this vision.6

The deployment of LLMs on classified datasets across the Fleet is unlikely to lead to the wholesale replacement of IW personnel but will likely change the nature of their work. LLMs on warships will need to be optimized to operate in denied or degraded communications environments, meaning they likely need to be installed and run locally onboard ships. This will improve daily performance by removing the need for an internet connection, but it also means that over the course of a deployment the datasets feeding the LLM will become out of date and questions like “when is the last time Country X’s ship operated here” will go from being accurate and useful to inaccurate and misleading after a few weeks. 

This means that the role of deployed IW personnel will be ensuring that the datasets feeding LLMs are accurate and up to date. This includes the tactical data that is collected by the ship during the course of a deployment, whether that is intelligence, METOC, or SIGINT data. As this data management and LLM curation will be a cross-IW enterprise it should become a core function of the nascent IWRON structure discussed above. Some learning and experimentation will be required as the knowledge management practices onboard most ships today do not extend beyond maintaining Sharepoint sites, Collaboration at Sea (CaS) pages, or share drive folders.

Of course ships themselves must also be considered in the execution of this concept, particularly regarding space available for hardware and power output to run LLMs as described. Operating the aforementioned equipment requires specialized–or at least dedicated–compute, which will have to be installed likely in classified spaces already at a premium on smaller classes of warship. Furthermore, both the ship’s Engineering and Information Warfare teams must be engaged to determine what capabilities could be lost or degraded if LLMs are integrated into the ship’s technology stack, including hardware, software, power supply, maintainers, and operators. These conversations and their solutions fall squarely in the wheelhouse of NAVIFOR’s IWRON program, currently being piloted on both the east and west coasts. IW Commodores and their staffs should work directly with both operational and training DESRONs, along with AIRLANT/PAC and CSG staffs, to ensure hardware, software, and manpower training and operational needs are met going into workup and deployment cycles. Integrating these solutions into routine operations as quickly as possible will be key to fully implementing an AI strategy that is set up for success.

Innovation is Necessary to Retain IW’s Warfighting Edge

As McAfee and Brynjolfsson note, investments in both workforce training and improved business practices are more impactful than technological investment alone. The Navy IW community must therefore be proactive in addressing its productivity challenges by taking a round turn on training and innovation. We must organize our forces both afloat and ashore to identify current talent, train new innovators, and ensure they are accounted for throughout their time in uniform. We must prioritize our operational forces both afloat and ashore. This means the IWC must be resourced, staffed, and authorized appropriately to operate afloat, while their MOC counterparts must be similarly taken care of ashore. And we must incentivize our most innovative personnel–the Navy’s greatest strength–to learn, train, fight, and stay Navy.

Taken together, these improvements are critical to the Navy’s future and certainly greater than the sum of their parts. The journey of a thousand miles begins with a single step, after all. The Navy has reorganized itself to adapt to technological change time and again – steel over wood, steam over wind. Now the Navy must absorb, understand, and harness the power of the digital technologies to maintain its warfighting edge. 

Lieutenant Commander Shane Halton is an Intelligence Officer currently serving in Washington DC. He previously served as a Requirements Officer at the Navy’s Digital Warfare Office and helped create the Navy’s first Data Science at Sea team aboard CSG-1.

Lieutenant Commander Adam Reiffen is an Intelligence Officer currently serving as a Federal Executive Fellow at Brown University’s Watson School of International and Public Affairs. He previously served as a Requirements Officer at OPNAV N2N6 and was Officer-in-Charge of the Navy’s Data Science at Sea team aboard CSG-1 from 2024-25.

The opinions expressed are those of the authors and do not reflect the views or policy of the U.S. Department of War, the Department of the Navy, or the U.S. government. No federal endorsement is implied or intended.

References

1. Rear Admiral Carlos Sardiello and Lieutenant Commander Shane Halton, U.S. Navy, and Annie Voigt, CNA, “The Case for Data Science at Sea,” CNA In-Depth, June 2024, https://www.cna.org/our-media/indepth/2024/06/the-case-for-data-science-at-sea.

2. Lieutenant Commanders Adam Reiffen and Shane Halton, U.S. Navy, “Lessons Learned in Year One of Data Science at Sea,” Proceedings, May 2024, https://www.usni.org/magazines/proceedings/2024/may/lessons-learned-year-one-data-science-sea.

3. Joshua Rodriguez, U.S. Navy, “A Paradigm Shift: Navy Establishes First Information Warfare Squadron, ” navy.mil, Dec 2025, https://www.navy.mil/Press-Office/News-Stories/display-news/Article/4353901/a-paradigm-shift-navy-establishes-first-information-warfare-squadron/  

4. Ensign Rachael Jones, U.S. Navy, “U.S. and French Host First-Ever Military Hackathon at Sea,” DVIDS, May 2024, https://www.dvidshub.net/news/492989/us-french-host-first-ever-military-hackathon-sea.

5. Sydney J. Freedberg, Jr., “Anthropic, Google and xAI win $200M each from Pentagon AI chief for ‘agentic AI’,” Breaking Defense, July 14, 2025, https://breakingdefense.com/2025/07/anthropic-google-and-xai-win-200m-each-from-pentagon-ai-chief-for-agentic-ai/ 

6. C. Todd Lopez, ”Hegseth Introduces Department to New AI Tool,” war.gov, Dec 2025, https://www.war.gov/News/News-Stories/Article/Article/4355797/hegseth-introduces-department-to-new-ai-tool/.

Featured Image: GULF OF ALASKA (Aug. 23, 2025) Lt. Michael Zittrauer works on a terminal in the combat information center (CIC) aboard the Arleigh Burke-class guided-missile destroyer USS Frank E. Petersen Jr. (DDG 121) during exercise Northern Edge 2025 (NE25). (U.S. Navy photo by Mass Communication Specialist 3rd Class Christian Kibler)

Washington’s Misplaced Shipbuilding Obsession

By Colin Grabow

In a year dominated by sharp partisanship, numerous lawmakers improbably united around the revival of America’s commercial shipbuilding industry. Congressional legislation that would channel billions into shipyard subsidies and new trade restrictions attracted scores of cosponsors. The White House issued an executive order aimed at maritime revitalization, and a trade pact with South Korea includes a pledge to invest $150 billion in U.S. shipyards.

But expectations of a genuine American shipbuilding renaissance should be kept in check. The United States is ill-suited to quickly transform from a virtual non-participant in commercial shipbuilding to a competitive producer of large cargo vessels. More likely is another round of costly subsidies, continued shipbuilding dysfunction, and little progress toward addressing the country’s key maritime challenges. Rather than devote substantial resources to this questionable enterprise, U.S. policymakers should pursue pragmatic solutions that more directly remedy commercial and naval shortcomings.

An Industry in Collapse

No major U.S. industrial sector has underperformed as consistently and predictably as commercial shipbuilding. Over the past decade, U.S. shipyards have accounted for less than three-tenths of one percent of global shipbuilding output. In 2024, they registered just 0.04 percent. Over the past quarter-century, U.S. production of oceangoing cargo ships has averaged less than three per year. A 2025 Government Accountability Office (GAO) report describes the sector as having experienced a “near total collapse.”

There is no mystery as to why. Constructed almost entirely for a captive domestic market, U.S.-built commercial vessels feature prices that bear no semblance to world levels. Three Aloha-class containerships under construction at a U.S. shipyard have a current projected cost of $334.5 million each. The same ships could reportedly be built in China for $55 million. Tankers that can be built for $47 million abroad are estimated to cost at least $220 million in the United States. And prices are spiraling ever higher. In 2013, an Aloha-class containership cost $209 million, and in 2020 the cost of a U.S.-built tanker was estimated at $150 million.

Construction timelines are similarly uncompetitive. The last U.S.-built containership delivered required approximately 40 months from the laying of its keel until its delivery in 2023. A similarly sized containership delivered by a South Korean shipyard that same year took less than six months. Of the last 10 containerships delivered by U.S. shipyards between 2004—2023, the fastest construction time was 19 months.

This subpar performance is not a recent phenomenon. Although U.S. shipyards, blessed with skilled workers and ample supplies of timber, were highly competitive in the country’s early days, they quickly fell behind when the era of wooden ships gave way to those built of iron and powered by steam. Between the Civil War and the early 1920s, U.S.-built ships were repeatedly found to cost 20 percent to over 100 percent more than the similar vessels constructed abroad. And now they cost far higher.

That the depth and long-standing nature of U.S. shipbuilding’s decline is so widely unappreciated is perhaps due to its vast output during World War Two. But citing the conflict as evidence of American commercial shipbuilding prowess misreads history. The country’s shipbuilding performance was driven by wartime exigencies and simplified ship designs for a government customer. Even at the height of production, U.S. yards either still trailed or only briefly matched the efficiency of leading foreign competitors, and never equaled them on cost.

When the war ended and government orders disappeared, domestic shipbuilding quickly reverted to its prewar state: high-cost, low-output, and internationally uncompetitive. World War Two is properly viewed as an anomalous event amidst an enduring decline in domestic shipbuilding.

It is a downfall that beefed-up federal subsidies alone are unlikely to reverse.

The SHIPS for America Act: A Costly Illusion

The centerpiece of today’s shipbuilding revival effort is the proposed SHIPS for America Act, which relies on new subsidies and protectionist measures as its key pillars. Its most ambitious provision would devote billions to the creation of a “Strategic Commercial Fleet” of 250 U.S.-built cargo ships over the next decade. Other key elements include requirements that certain percentages of U.S. energy exports and imports from China be carried on vessels that are U.S.-flagged and built, as well as tax credits, loan support, and direct grants to shipyards.

The act would undoubtedly stimulate the construction of some new ships. Whether it would launch a robust, self-sustaining shipbuilding industry or provide benefits commensurate with its costs, however, is another matter entirely. 

If one wanted to competitively construct large, oceangoing cargo ships, the United States would not be an obvious location for doing so for at least three main reasons.

First, American shipyards struggle to find sufficient labor to meet their current output. Shipbuilding is labor-intensive and requires a stable, highly skilled workforce. Yet Philly Shipyard is reportedly experiencing annual turnover approaching 100 percent, coupled with persistent issues such as drug use. Other yards also report labor difficulties (including quality issues), and worker challenges have been blamed for contributing to the U.S. Navy’s ill-fated Constellation-class frigate program.

Such issues are not limited to the graving docks and fabrication shops. Besides a dearth of production workers, there is also a deficit of naval architects.

Immigration reform or the hiring of foreign workers—for which U.S. shipyards have already demonstrated an appetite—could be one means of deepening the labor pool. Indeed, both Japan and South Korea have extensively utilized foreign workers to address labor shortages in their shipyards. This path, however, appears at odds with White House policy. Raising wages offers another solution, but it would also further increase the cost of U.S.-built ships and siphon welders, electricians, and other skilled tradespeople away from other industries that are contending with their own labor shortages.

Second, U.S. shipbuilding facilities are antiquated. A June 2025 GAO report found that most such infrastructure dates from World War Two, and observers have repeatedly characterized U.S. shipyards as decades behind their international counterparts in terms of technology. Such factors contribute to a yawning productivity gap and are unlikely to be quickly remedied. Notably, a Navy initiative launched in 2018 to modernize its own shipyards is envisioned as a twenty-year project.

Third, U.S. shipyards face inflated input costs. American steel prices—kept artificially high through tariffs—are a particular problem for those seeking to construct ships competitively. The absence of a robust network of domestic suppliers and a maritime industrial ecosystem compounds matters.

This list of challenges is not comprehensive. Others include the difficulty of locating waterfront property near major population centers that is suitable for major industrial facilities. Even if successfully identified, political difficulties may arise. The redevelopment of brownfield sites for shipbuilding involves years of red tape. Expanding capacity at existing shipyards can be nearly impossible due to physical constraints.

Building large commercial cargo ships in the United States at world prices is a formidable challenge, if not an impossible one. And none of this will change simply because Congress writes large checks.

History Shows Subsidy Limitations

Proponents of the subsidy-centered SHIPS for America Act describe it as a bold industrial strategy. But its playbook is familiar in many ways. At best, much of the bill amounts to new twists on past and current approaches that produced uninspired results.

Despite some claims to the contrary, U.S. shipbuilding policy is already infused with government intervention. Congress guarantees U.S. shipyards a captive domestic market through the Jones Act and related coastwise laws that ban foreign-built vessels from domestic commerce. Federal tax benefits, direct grants, and financing are also employed to encourage domestic shipbuilding. State and local governments offer further aid. Philly Shipyard alone has received more than $400 million in public support, in addition to its $1-per-year lease.

The most ambitious federal program was the 1936 introduction of “construction differential subsidies” that covered up to half the cost of U.S.-built ships. The purpose was explicit: Eliminate the price gap between domestic and foreign shipbuilding by covering up to 50 percent of the cost of domestically-built ships. But the measure failed to impel competitiveness, and storm clouds were gathering around the industry even before the subsidies’ withdrawal in 1981. It is a testament to U.S. shipyards’ dependence on such funding that output of 15-20 ships per year under the subsidy regime fell to typically low single digits in the decades since it ceased.

Subsidies and Jones Act-style requirements can temporarily stimulate production but create dangerous dependencies and incentive structures. There is little reason to believe they can close the structural cost gap or lead to internationally viable cargo ship construction. U.S. government interventions alone will not yield such competitive shipbuilding.

Scale Matters

Shipbuilding is an industry where scale, repetition, and specialization are decisive. Yet even if every provision of the SHIPS for America Act were implemented smoothly and fully funded, the resulting ship production would still fall far short of leading international shipbuilders.

The legislation’s Strategic Commercial Fleet envisions an average of 25 ship deliveries per year over 10 years. China, by comparison, delivered an average of 832 commercial ships annually from 2022 to 2024. Japan averaged 259, and South Korea 214. South Korea alone has four shipyards that are each capable of producing at least 40 ships per year.

Though an order of magnitude greater than current output, annual production of 25 ships—spread across multiple shipyards—would remain a rounding error in global terms. U.S. shipbuilding would be too small to reap economies of scale, too fragmented to specialize, and—not least—too sheltered to compete with the world’s most efficient builders.

The Competition Problem

Almost from the country’s founding, U.S. shipyards have been shielded from international competition. Federal subsidies and the ban on foreign-built vessels in domestic trade have created a small, captive market, severely dampening market forces that spur innovation and efficiency abroad. This lack of industry pressure has been repeatedly cited as contributing to the faltering of U.S. shipbuilding. Shipyards which do not face world-class competition and which serve customers who view high capital costs as a useful barrier to market entry should not be expected to attain world-class performance.

The SHIPS for America Act does little to change this. It preserves the Jones Act’s restrictions, expands federal shipyard grants to $100 million annually, and introduces new tax incentives. A further $11 billion over 10 years is devoted to the construction and operation of the Strategic Commercial Fleet. Although competitive bidding will be used to determine which shipyards construct the fleet’s vessels, the pool of competitors will be extremely limited.

Just two yards, Philly Shipyard and NASSCO, have built 79 percent (53 of 67) of U.S. commercial cargo ships delivered from 2000 to the present. NASSCO is already heavily committed to Navy work. Unless new yards are rapidly built or existing ones expanded—no easy task—competition will be minimal, and incentives for efficiency will remain weak.

This structure all but guarantees that U.S. shipyards will remain permanent clients of the federal government, dependent on continuous intervention to stay afloat.

Foreign Investment Offers No Panacea

Despite these myriad challenges, some insist that this time will be different, citing the leveraging of foreign expertise as a dramatic shift in the existing paradigm. The 2024 acquisition of the Philly Shipyard by South Korean shipbuilder Hanwha Ocean, along with its subsequent promises of investment, is often highlighted as an initial sign of this budding renaissance.

But foreign ownership of U.S. shipyards isn’t a novel idea. And, while helpful at the margins, it has never delivered game-changing results.

Philly Shipyard, which has built nearly half of all commercial ships delivered by U.S. shipyards since 2000, offers a case in point. Refurbished in the 1990s at enormous taxpayer expense, the yard was placed under the ownership of Kværner ASA, then Europe’s largest shipbuilding company, with the belief that modern facilities and foreign know-how would transform American shipbuilding. That never happened. Despite foreign training and engineering, the yard still produced containerships that cost five times as much as those built in Asia, and the facility has twice come close to shutting down.

Other examples of foreign ownership and cooperation abound. A Singaporean-owned shipyard in Brownsville, Texas (recently sold to Turkish firm Karpowership) has been plagued by cost overruns and vessels delivered years beyond their originally scheduled dates. Another shipyard in Pascagoula, Mississippi required five years to deliver the last two cargo ships it built while under the ownership of a separate Singapore company. This shipyard won a contract in 2019 to build heavy icebreakers for the U.S. Coast Guard, with delivery of the first vessel scheduled for 2024. Delivery has now been pushed to 2030, and its estimated cost has more than tripled.

NASSCO entered a long-running technology partnership with South Korea’s DSEC in 2006, and Japanese shipbuilders began exporting technologies to U.S. yards in the 1970s. None of these foreign interventions have produced competitive shipbuilding.

This experience isn’t restricted to the United States. Attempts by South Korean shipyards to create competitive subsidiaries in Romania and the Philippines have also proven disappointing. Plainly, there is more to the generation of world-class shipbuilding than foreign management and technology.

National Security Arguments Don’t Hold Up

With a paucity of economic rationales for the SHIPS for America Act—funneling tax dollars to internationally uncompetitive sectors and requiring the use of costly U.S. shipping is hardly conducive to prosperity—its backers have emphasized its alleged national security benefits. In particular, some supporters of the legislation argue that expanded commercial shipbuilding could introduce new efficiencies in the construction of naval vessels. Additionally, proponents contend that domestic construction would reduce dependency on foreign shipyards during times of war or national emergency. But these arguments suffer from significant flaws.

Although commercial and naval shipbuilding share some commonalities, they also diverge in significant ways. As one paper recently noted, there are “major differences in materials, production complexity, regulations, and design philosophies.” In 2006 congressional testimony, the commander of Naval Sea Systems Command stated that “one could argue they are separate industries.”

The fact that major naval shipyards—even with a captive domestic market—have largely abandoned commercial construction reinforces the point. Bath Iron Works, which builds destroyers, has not built a commercial ship since 1984. Ingalls Shipbuilding, another warship builder, has not attempted commercial construction since an ill-fated effort in 1999. Newport News Shipbuilding’s push to fill its orderbook in the post-Cold War 1990s with commercial tankers resulted in a loss of over $320 million.

Fincantieri Marine Group, meanwhile, constructs surface combatants at its shipyard in Marinette, Wisconsin, and commercial vessels at a separate shipyard in Sturgeon Bay.

This shipbuilding bifurcation isn’t uniquely American. Congressional Research Service analyst Ronald O’Rourke has noted that Asian yards engaged in both naval and commercial vessel construction make a concerted effort to separate workers by ship type. Japan’s Mitsubishi Heavy Industries is said to physically and organizationally “air gap” its naval and commercial shipbuilding.

A 2024 RAND Corporation analysis, meanwhile, found that the two types of shipbuilding may be growing increasingly independent in China, with shipyards “focusing either on naval or commercial shipbuilding, but not both.” Notably, South Korean shipbuilding firm Samsung Heavy Industries has eschewed the construction of naval combatants.

To be sure, overlap between commercial and naval shipbuilding does exist, and a scenario can be imagined in which increased commercial output helps spread certain fixed costs and overhead across more vessels. But consider the logic. Spurring commercial shipbuilding via subsidies would mean spending significant sums in the hope of recouping them through new efficiencies—a highly uncertain proposition.

Perhaps of greater concern is the potential impact of subsidy-driven commercial shipbuilding on naval shipyards’ ability to attract workers. Given existing labor pool stresses, there is considerable apprehension that an increased demand for ships could lead to workers being siphoned from existing yards (notably, Philly Shipyard has hired veterans of Gulf Coast yards to meet their labor needs). Labor constraints could lead to lengthened timelines, inflated costs, and intensified bottlenecks at naval shipyards already struggling with delays and overruns.

Such concerns are rooted in past experience. A 1975 GAO report highlights Navy congressional testimony the previous year which stated that increased commercial shipbuilding—boosted by federal subsidies—had led to shortages of skilled labor, contributing to delivery delays and higher costs for Navy ships.

In other words, subsidized construction of large commercial ships may actually weaken military shipbuilding. Similar logic applies to commercial shipbuilding, with workers and investment flowing to larger shipyards at the expense of smaller ones that are better positioned to develop a comparative advantage in the international market. It is not apparent what problem faced by naval shipyards would be solved by either a general increase in commercial output or by adding commercial shipbuilding to naval yards that already struggle to deliver combatant ships on time.

Questions Over the Reality of Wartime Shipbuilding

Other arguments in favor of boosting cargo ship construction are similarly problematic. Notions that commercial shipyards could quickly expand the U.S. merchant fleet in wartime or replace losses, for example, are far from clear. Oceangoing ships cannot be quickly conjured. Even leading foreign shipyards require 9-12 months to construct relatively less-complex tankers (as measured from construction initiation, vice the placement of orders). Additionally, U.S.-built cargo ships are highly reliant on imported parts and components (e.g., engines from South Korea and propellers from China), leaving them vulnerable to possible wartime interdiction.

Unless a conflict lasts for years, it is highly questionable whether domestic shipbuilding would play a significant role in determining its outcome. This isn’t theoretical. Of the hundreds of ships ordered by the U.S. government following its entry into World War I in April 1917, only a small number were delivered prior to the signing of an armistice in November of the following year.

Possessing a domestic commercial shipbuilding capacity is not without merit. But perhaps of greater importance is access to a large, modern fleet when hostilities commence.

Shipping industry veterans have pointed out that, rather than engaging in new construction, the United States could more expeditiously augment its merchant fleet by buying ships on the open market. With over 56,000 ships of at least 1,000 gross tons in the global fleet, including nearly 7,500 tankers and more than 6,700 containerships, there is considerable choice.

The United States could also expand existing subsidy programs that provide guaranteed access to U.S.-flagged vessels in times of war or national emergency, or establish a more liberalized second registry to expand the pool of merchant ships. The right of angary, employed by the United States in World War I, also bears consideration in the sealift calculus.

A More Purposeful Approach is Needed

None of this is to deny that the United States faces pressing maritime challenges. Navy shipbuilding is beset by lengthy delays and cost overruns. Burdened by high costs, the U.S. merchant fleet has continued its long-term decline, and coastal shipping has largely withered to those trades where alternative transportation modes do not exist. A shortage of mariners raises questions about the country’s ability to meet its sealift and economic needs.

At best, subsidized cargo ship construction is a highly inefficient means of addressing these concerns. Instead, more straightforward means should be employed to address the country’s economic and national security requirements. Possible policy measures include:

Ensure continuous production: U.S. shipyards often cite the lack of a consistent “demand signal” from Washington as a key contributor to their struggles. Such claims are not without justification. A lack of insight into future demand increases the difficulty of planning and investment to meet military shipbuilding needs. Instead of a cyclical feast-or-famine approach, the United States should aim for steadier, more predictable production.

Japan offers one possible model for such an approach. According to CRS analyst Ronald O’Rourke, the country builds one submarine per year, regardless of the overall defense environment. If more submarines are needed, the force can be expanded by extending the lifespans of existing vessels. Conversely, retirements can be used to trim the fleet when needed. Regardless, the approach ensures steady demand, more efficient construction, and the retention of skills, equipment, and technology necessary to build such vessels.

Leverage allied shipyards: Although the United States is fortunate to count some of the world’s most capable shipbuilders among its key allies, its ability to leverage these shipyards is greatly hampered by laws that restrict the construction and repair of military vessels overseas. If these laws were revised, as advocated by a growing number of experts, the path could be cleared to construct either large modules or entire vessels in highly skilled allied yards.

Domestic construction has value, but there comes a point at which it is surpassed by the benefits of utilizing allied shipyards that offer far shorter building times and dramatically lower costs. For numerous programs, including non-combatant vessels such as fleet oilers and icebreakers that have seen substantial delays and cost increases, the national security scales have almost certainly tipped in favor of allied construction.

Forgoing these capabilities in the hope that a massive and unprecedented turnaround in U.S. shipbuilding can be quickly engineered is highly risky, possibly leaving the military unable to obtain the vessels it needs at reasonable costs and within reasonable timelines to meet national security requirements.

Reform or repeal U.S. coastwise laws: There has long been clear evidence that U.S. coastwise laws place a significant economic burden on strategic industries such as steel and energy. But these laws also fail the country on more direct national security grounds. Forcing Americans to pay inflated prices for new vessels has not proven conducive to the development of a large, modern fleet or a robust shipbuilding industry.

At the very least, such laws should be reformed to allow the use of vessels constructed in allied countries. Dramatically reducing such capital costs would promote an expanded and modernized fleet, with accompanying economic and national security benefits—including additional employment opportunities for U.S. shipyards engaged in repair and maintenance work due to increased coastal commerce.

A bolder approach would be to scrap the law entirely and meet national security needs through targeted subsidies that promote the expansive employment of U.S. vessels and mariners.

Conclusion: An Industrial Strategy Without Industry

That lawmakers are finally paying serious attention to the country’s maritime troubles is a welcome and long-overdue development. For decades, policy failures in this domain have been treated as niche concerns rather than real threats to U.S. economic and national security. But the sudden enthusiasm for resurrecting large-scale commercial shipbuilding risks directing this new focus toward the least productive path.

The United States is nowhere close to becoming a competitive builder of large oceangoing cargo vessels, either under current conditions or under any plausible combination of subsidies or mandates. The structural barriers are overwhelming, including outdated shipyards, exceptionally high input and labor costs, and a workforce too small to sustain such an industry. The national security payoff is equally uncertain. Expanding commercial production is not an obvious solution to the issues that plague naval shipbuilding, nor is it an efficient method of bolstering the U.S.-flag merchant fleet.

What U.S. maritime policy needs instead is a clear-eyed assessment of its discrete problems and targeted strategies to address each one. Sealift shortfalls, mariner shortages, and the high cost of domestic water transport all stem from different causes and require different remedies, not a politically attractive but strategically hollow push to build more large ships. Innovation, regulatory modernization, smarter procurement, and a willingness to revisit long-standing assumptions would do far more to strengthen the maritime sector than another round of recycled industrial policy.

The time, resources, and political attention now focused on a commercial shipbuilding revival would be far better spent confronting the root causes of maritime dysfunction. A serious maritime strategy demands honesty about present conditions, not nostalgia for an industrial past. If lawmakers truly want to restore American maritime strength, they must craft solutions that reflect today’s challenges and realities.

Colin Grabow is an associate director at the Cato Institute’s Herbert A. Stiefel Center for Trade Policy Studies.

Featured Image: A Chinese shipyard. (Photo via Hudong-Zhonghua Shipbuilding)

Sea Control 595: China’s Command Revolution with Elsa Kania

By Brian Kerg

Dr. Elsa Kania joins the program to discuss her dissertation, “China’s Command Revolution,” which examines the reforms, adaptation, and emerging innovation in Chinese military command capabilities.

Dr. Elsa Kania received her PhD in Government from Harvard University. She served as a visiting scholar for the Asia-Pacific Center for Security Studies, as an adjunct senior fellow at the Center for a New American Security.

Download Sea Control 595: China’s Command Revolution with Elsa Kania

Links

1. Elsa Kania’s LinkedIn profile.

Brian Kerg is Co-Host of the Sea Control podcast. Contact the podcast team at Seacontrol@cimsec.org.

Jim Jarvie edited and produced this episode.