Human capital is increasingly recognized as an important component of national security because a state’s ability to perform critical functions depends not only on physical assets and institutions but also on people with the knowledge and skills required to operate them [11]. In this article, human capital security refers to the capacity of a state to maintain a sufficiently skilled and available workforce for functions essential to national resilience and defense. Applied to the maritime sector, this extends beyond the total number of trained seafarers to include their distribution across credential levels, vessel categories, technical specializations, and operational availability, as well as the capacity of institutions responsible for educating, training, certifying, and retaining them. This perspective is particularly relevant to the U.S. Merchant Marine because maritime readiness depends on the interaction between ships, infrastructure, institutions, and qualified personnel. MARAD’s 2025 Mariner Workforce Strategic Plan explicitly identifies the need for sufficient credentialed mariners to crew both the U.S.-flag commercial fleet and strategic sealift vessels, while emphasizing recruitment, training, and retention as central workforce concerns [12]. More broadly, U.S. joint logistics doctrine recognizes transportation as fundamental to military operations and to the movement and sustainment of forces and materiel across operational theaters [13]. Historical experience also illustrates the scale of human and organizational effort required to sustain overseas deployments, as demonstrated by the Gulf War logistics operation described by Pagonis and Cruikshank [14]. Yet the physical availability of ships does not automatically translate into usable sealift capacity. GAO’s analysis of the Ready Reserve Force identified crewing as a central determinant of sealift capability, noting that the declining U.S. merchant-marine manpower pool could directly affect sealift capability and that timely crewing presented an important challenge [15]. The central concern, therefore, is not simply whether vessels are available for activation, but whether a sufficiently deep pool of qualified personnel can be trained, credentialed, retained, and mobilized when those vessels are required. Workforce capacity should consequently be understood as a strategic component of sealift readiness rather than a secondary administrative concern.

Note: Source: Author conceptual framework.

Figure 1. Pipeline Fragility Framework - Tripartite Deficit Conceptual Model. The three deficit dimensions (Volume, Quality, Stability) interact through compound vulnerability dynamics to produce sealift readiness failure under contingency demand.

The framework identifies three analytically distinct but operationally interdependent deficit dimensions. Volume deficit refers to insufficient graduating cohorts relative to strategic workforce requirements, creating demographic gaps in the pipeline’s age and experience distribution. Quality deficit refers to graduates whose formally credentialed competencies do not match operational demands, producing a gap between credential possession and effective operational readiness. Stability deficit refers to enrollment and institutional funding patterns of sufficient volatility that aggregate output cannot be reliably projected, preventing the long-horizon workforce planning that sealift readiness requires. As conceptualized in Figure 1, the intersection of all three deficits produces compound vulnerability qualitatively different from the sum of its parts.

The pipeline fragility framework developed in this study draws on established ideas concerning organizational resilience, high-reliability systems, fragility, and human systems integration [16]-[18]. Its distinctive contribution is to apply these perspectives to the particular temporal and institutional conditions that shape maritime workforce development, including the multi-year pathway from education to operational qualification, the progressive credentialing structure through which mariners advance, the interaction between civilian and defense-related labour markets, and the regulatory requirements that establish minimum competency standards while potentially constraining the speed and flexibility of workforce development. It conceptualizes workforce resilience across three interrelated dimensions: volume, quality, and stability. These dimensions are not treated as independent conditions because weaknesses in one can amplify vulnerabilities in the others. A workforce that is limited in size but maintains appropriate competencies and stable institutions may respond to increased demand through targeted recruitment and enrollment expansion. Conversely, a workforce with sufficient numerical capacity but significant competency gaps may require curriculum and training reform rather than simply increased recruitment. Institutional instability presents a different challenge, as fluctuations in enrollment, training capacity, credentialing, or retention can undermine otherwise adequate workforce capacity and make long-term planning more difficult. The greatest vulnerability arises when deficiencies occur simultaneously across volume, quality, and stability. Under such conditions, efforts to correct one dimension may place additional pressure on the others, reducing the system’s ability to absorb unexpected demand. This interaction is central to the framework proposed here and distinguishes pipeline fragility from a simple aggregation of isolated workforce shortages. The empirical analysis presented in subsequent sections therefore examines these three dimensions collectively to assess the extent to which weaknesses within the U.S. maritime workforce pipeline may constrain strategic sealift readiness.

A central feature of the pipeline fragility framework is time-horizon asymmetry: strategic sealift requirements can emerge within a relatively short planning cycle, whereas producing experienced senior mariners requires years of education, sea service, training, and progressive certification. A student entering a U.S. maritime academy in 2025 would typically complete the four-year programme before entering the operational workforce at the junior-officer level. Advancement to senior positions such as Master or Chief Engineer then requires additional qualifying service and certification under U.S. Coast Guard regulations, with MARAD reporting that mariners take approximately ten years on average to reach these management-level credentials [19][20]. These requirements reflect the competency standards established under the STCW Convention and are intended to ensure that officers possess appropriate training and practical experience for safety-critical responsibilities [21]. Consequently, maritime workforce capacity cannot be expanded as rapidly as fleet requirements can change. Enrollment decisions made today may therefore have limited immediate effect on the availability of senior officers during a near-term sealift contingency, creating a structural mismatch between workforce production and defense planning horizons.

The institutional foundations of modern American maritime education were established well before the end of the Second World War, although the war greatly expanded and reinforced the federal training system. The Merchant Marine Act of 1936 provided an important statutory foundation for federal maritime training, leading to the establishment of the U.S. Maritime Service in 1938 and the expansion of organized training as the prospect and demands of war increased. The U.S. Merchant Marine Academy at Kings Point emerged from this effort and was formally dedicated in 1943. During the war, American merchant mariners played a vital role in sustaining Allied operations by transporting personnel, fuel, equipment, and other supplies across multiple theaters. More than 9,500 merchant mariners are reported to have died during the conflict, and federal sources have described their per-capita casualty rate as higher than that of any U.S. military branch, although precise wartime totals vary because casualty records were not uniformly maintained.

The postwar period subsequently reshaped, rather than created, this institutional framework. The Merchant Ship Sales Act of 1946 authorized the disposal of surplus wartime vessels and established the National Defense Reserve Fleet, while later legislation strengthened federal support for maritime education and training, including assistance to state maritime academies. Under the current statutory framework, MARAD supports six State Maritime Academies, whose programmes provide the academic, technical, and at-sea preparation required for merchant-marine officer credentials. The U.S. Merchant Marine Academy occupies a distinctive position within this system. As one of the five federal service academies, it combines higher education and maritime training with a national-security mission. Its graduates receive a bachelor’s degree, a U.S. Coast Guard merchant-marine officer license, and a commission in the U.S. armed forces under the applicable reserve or service arrangements. Current law also requires graduates to maintain their merchant-marine credentials and fulfil specified maritime or federal service obligations following graduation.

This combination of civilian maritime employment and military service reflects a long-standing U.S. policy of integrating the merchant marine with national defense. Federal law expressly calls for close cooperation between the Navy and the merchant marine and requires maritime academies to include training related to the operation of merchant vessels as naval and military auxiliaries. The model therefore links commercial maritime competence with strategic sealift and defense requirements without making military service the sole purpose of maritime education. Whether this relationship has materially changed over the decades is an empirical question. For the purposes of this study, the verified enrollment and placement data examined here provide evidence of contemporary outcomes but do not by themselves establish a long-term historical shift toward military or civilian employment. The observed pattern of Maritime Afloat placement exceeding Armed Forces commissions in the study period is therefore better treated as evidence of the current distribution of graduate destinations rather than proof of institutional drift in either direction.

Beneath the federal apex sit six state maritime academies, each operating under state educational authority but drawing federal operating support and student incentive payment funding through MARAD. The system comprises the State University of New York Maritime College in the Bronx, which traces its lineage to the New York Nautical School established aboard the vessel St. Mary’s in 1874 and is the oldest continuously operating maritime training institution in the United States, together with Massachusetts Maritime Academy in Buzzards Bay, Maine Maritime Academy in Castine, California State University Maritime Academy in Vallejo, Great Lakes Maritime Academy in Traverse City, Michigan, and Texas A&M Maritime Academy in Galveston. These institutions vary considerably in size, disciplinary breadth, research activity, and regional labor market orientation. SUNY Maritime and Mass Maritime produce large graduating classes with significant ocean-going officer representation, Great Lakes Maritime Academy specializes in inland waters and Great Lakes operations, and Cal Maritime has developed a distinctive emphasis on engineering and a pronounced orientation toward Pacific maritime trades. What they share is a fundamental dependency on federal funding streams that have been inconsistently appropriated and are politically vulnerable, along with a regulatory relationship with both MARAD and the Coast Guard that constrains curricular flexibility and imposes compliance costs that smaller programs find particularly burdensome. The federal subsidy architecture is organized around several programmatic streams: the Student Incentive Payment program, which provides monthly stipends to enrolled students who commit to sea service obligations, the State Maritime Academy Program, which provides institutional operating support and capital equipment grants, and various targeted grant programs that annual appropriations and authorization processes have created, modified, and sometimes discontinued. The cumulative inadequacy of these streams, relative both to the operational costs of modern maritime education and to the incentive structures that would stabilize enrollment at strategically adequate levels, is a recurring theme in academy administrators’ testimony to Congress and in MARAD’s own assessments of the state academy system.

The regulatory framework governing the competencies that maritime institutions must impart operates through two closely connected regimes. At the international level, the International Convention on Standards of Training, Certification and Watchkeeping for Seafarers (STCW), adopted by the International Maritime Organization (IMO) in 1978 and substantially revised in 1995 and through the 2010 Manila Amendments, establishes minimum standards for seafarer training, certification, and watch-keeping. Contracting states, including the United States, implement these requirements through domestic regulations. In the United States, the U.S. Coast Guard translates STCW requirements into the domestic credentialing framework under Title 46 of the Code of Federal Regulations. These regulations establish requirements for Merchant Mariner Credentials and officer endorsements, including examinations, sea service, competency standards, and approved training and assessment programmes.

The interaction between international standards and domestic regulation provides essential consistency and safety assurance but can also constrain the speed at which maritime education responds to technological and operational change. Both IMO amendments and U.S. regulatory revisions follow formal processes designed to ensure stability, consistency, and safety. This can create a degree of regulatory lag between the emergence of new technologies and practices and their incorporation into formal competency and credentialing requirements. The issue has gained renewed attention through the IMO’s comprehensive review of the STCW Convention and Code, initiated in 2024. The review has identified more than 400 gaps and is examining emerging issues including automation, cybersecurity, alternative fuels, and advanced training technologies [21]. Maritime education research likewise documents accelerated adoption of digital technologies and the growing use of simulator-based training [22], while broader marine applications of autonomous systems, including autonomous underwater vehicles, illustrate the widening technical domain [23]. These developments create a policy concern about how quickly curriculum and credentialing systems can adapt to technological change. Consequently, while the existing regulatory framework remains essential to maritime safety and international standardisation, the pace at which competency requirements are updated is an important consideration in assessing whether maritime education is keeping pace with contemporary operational realities. This concern is particularly relevant to the competency gaps examined in Section 6.

No account of American maritime education’s institutional context is complete without attention to the Merchant Marine Act of 1920 universally known as the Jones Act which mandates that cargo transported by water between U.S. ports be carried on vessels that are U.S.-built, U.S.-flagged, and crewed by U.S. citizens or permanent residents. The Jones Act has sustained a U.S.-flag commercial maritime sector encompassing tanker, dry bulk, container, and ro-ro trades in domestic waters, providing employment and, crucially, sea-service berths for American credentialed mariners. Without the Jones Act’s cabotage protection, the domestic commercial fleet would likely be far smaller, reducing the employment base sustaining mariner career ladders and providing the sea-service accumulation that license progression requires.

However, the Jones Act’s fleet-sustaining function has been insufficient, by itself, to maintain a maritime workforce pipeline of the depth that sealift planning requires. The domestic Jones Act fleet composed primarily of vessels in the Alaska, Hawaii, and Puerto Rico trades is optimized for coastal and near-seas operations. The deep-water, long-haul sealift missions that defense planning prioritizes require officer licenses endorsed for vessels of greater size and ocean-going capability than many Jones Act vessels provide as a training environment. The separation of the Jones Act domestic fleet from the international blue-water trades has contributed to a structural segmentation of the American mariner workforce in which deep-sea competencies are concentrated in a smaller and older population than overall credentialing statistics suggest. A segmentation whose implications are difficult to observe directly in the aggregate credential statistics available, since no publicly verifiable stock table disaggregates that population by license grade.

This article employs a mixed-methods analytical design combining longitudinal quantitative analysis of maritime academy enrollment and graduation data with qualitative analysis of policy documents, congressional testimonies, inspector general reports, and academic literature. The mixed-methods approach is dictated by the structure of the research problem: understanding enrollment volatility requires quantitative characterization of the patterns and their temporal correlates, while understanding curriculum stagnation and policy incoherence requires qualitative analysis of institutional processes and decision-making environments that aggregate statistics cannot illuminate.

The quantitative component draws on MARAD’s annual enrollment and graduation data, which provides verified enrollment figures, graduation rates, and outcome-category statistics for both USMMA and the six state maritime academies from Academic Year 2016-2017 through Academic Year 2024-2025. These data are supplemented by U.S. Coast Guard National Maritime Center credential database statistics, MARAD Ready Reserve Force program releases, MARAD U.S.-flag fleet dashboards, the 2017 MARAD Mariner Workforce Working Group report, and UNCTAD Maritime Country Profile data for international comparison. Where specific figures are cited, they reflect data reported in official publications.

No Baltic Dry Index series was available for this article, and the verified enrollment series (nine annual observations) is too short to support a statistically defensible lagged Pearson correlation; the enrollment-freight rate relationship is accordingly discussed qualitatively (Section 5.4) rather than tested statistically. The competency gap assessment presented via radar chart is an illustrative, author-constructed synthesis of STCW competency matrices, Coast Guard examination standards, and general industry commentary rather than a validated survey instrument, and its scores should be read as qualitative approximations rather than measurements (Section 6.1). Scenario modeling (Section 7.3) applies stated illustrative assumptions, not measured demographic trend vectors, to alternative policy scenarios, generating hypothetical senior mariner shortfall estimates under status quo and reform trajectories through 2040 for policy discussion purposes.

Three empirical case studies are incorporated to provide grounded illustration of the pipeline fragility framework’s analytical claims. The cases were selected to represent distinct causal mechanisms linking external shocks or policy choices to workforce pipeline perturbations: the 1990-1991 Gulf War sealift mobilization illustrates the demand-side stress test activating latent pipeline vulnerabilities; the 2014-2015 oil price collapse and its enrollment effects illustrate the labor market signal transmission mechanism; and the COVID-19 pandemic’s disruption of the USMMA sea year program illustrates institutional rupture as a qualitatively distinct form of pipeline fragility. Together, the three cases span different causal mechanisms, temporal scales, and phases of the pipeline production cycle.

Several limitations constrain the analysis. First, key sealift readiness assessments are classified or restricted, limiting the precision with which publicly available evidence can quantify the mariner shortfall in specific scenario-dependent terms. Second, the MARAD credential database is known to include mariners who are credential-holders but not actively employed at sea, making it an imprecise instrument for measuring the operationally available workforce. Third, the international comparative analysis is constrained by methodological differences in data collection across national maritime authorities that limit the full commensurability of cross-national statistics. These limitations are acknowledged where relevant and inform the conservative analytical posture adopted throughout.

Over the nine academic years for which verified data exists, combined enrollment across all seven federal and state academies declined from 7,372 to 5,683 students (a 22.9 percent decline) between AY2016-2017 and AY2023-2024, before a partial rebound to 6,106 in AY2024-2025 a net decline of 17.2 percent across the full window. Figure 2 presents this verified series [9].

Industry accounts describe earlier episodes of enrollment pressure at the maritime academies, including the post-Cold War defense draw-down of the 1990s, the 2008-09 financial crisis, and the 2014-15 oil price collapse. It is plausible that economic conditions of this kind shape enrollment decisions in ways consistent with pipeline fragility. The verified MARAD enrollment series, however, begins in AY2016-17, so no enrollment figures are attributed to these earlier periods. Within the verified window, the pandemic is the clearest documented disruption. Enrollment fell from 7,001 in AY2019-2020 to 6,722 in AY2020-2021 and continued to decline through AY2023-2024. The concurrent suspension of the sea year discussed in Section 5.5.3 to produce the steepest sustained decline in the verified series. The partial rebound to 6,106 in AY2024-2025 is the most recent observation and should be treated as provisional, since a single year of data cannot distinguish a genuine recovery from a one-year fluctuation.

Note: Source: [9] annual enrollment and graduation data (AY2016-17 - AY2024-25).

Figure 2. U.S. Maritime Academy Enrollment, AY2016-17 - AY2024-25. Combined enrollment across all seven academies.

Table 1.State maritime academy enrollment summary statistics (AY2018-19 - AY2024-25).

Note: Source: [9] annual enrollment/graduation data. FTE = Full-Time Equivalent Students.

Table 1 summarizes the verified descriptive statistics of the enrollment series. The coefficient of variation of 9.15 percent for state academies roughly 2.3 times that of the USMMA (3.95 percent) indicates greater relative instability of state academy enrollment relative to the appointment-system-insulated federal academy, this remains consistent with the hypothesis that the enrollment instability of the state academy system reflects the commercial labor market exposure of institutions without the demand-management architecture that the USMMA’s Congressional appointment system provides [9].

Figure 3 examines a dimension of pipeline fragility that enrollment statistics alone cannot captur, how USMMA graduates are actually distributed across career outcomes.

Note: Source: [9] annual enrollment/graduation data, USMMA outcome categories.

Figure 3. USMMA graduate outcomes by category, AY2018-19 - AY2024-25.

Across the seven, Maritime Afloat placement exceeded Armed Forces commissions in every single year, from a ratio of roughly 1.4:1 in AY2018-19 (101 vs. 70) to a peak of roughly 2.8:1 in AY2023-24 (144 vs. 51), narrowing to about 1.5:1 in AY2024-25 (115 vs. 78) as Armed Forces commissions rose from their recent low. At no point in the verified window did Armed Forces commissions exceed Maritime Afloat placements. This does not mean the federally subsidized investment in USMMA graduates fully redounds to the commercial sealift workforce Armed Forces commissions still account for a meaningful and, in the most recent year, growing share of outcomes, and Maritime Ashore placements add a further outflow from sea-going commercial billets but the specific claim of a 2015 - 2016 inversion in which military service came to exceed commercial employment is not supported by the data available for verification, and this article withdraws it [9].

Figure 4 tests a central proposition of the pipeline fragility framework: that credential-pool statistics overstate the workforce capacity actually available for operations. Because no continuous long-run series linking fleet size to credential counts could be traced to a public source, the figure rests on two independently verified data points.

Figure 4. Recent U.S.-Flag Fleet Size and the Credential-vs-Availability Gap. Left: the U.S.-flag fleet has been essentially stable to slightly growing since 2022 (177 to 189 vessels, +6.8 percent), not contracting. Right: MARAD’s 2017 Mariner.

Recent U.S.-flag fleet data show no continuing contraction. Fleet size has been essentially stable since 2022, rising modestly from 177 to 190 vessels before easing to 189 in the February 2026 snapshot [24]. This current snapshot does not by itself resolve the longer-run trajectory because the dashboard is a point-in-time fleet measure rather than a harmonized multi-decade series. The verified data instead speak directly to the gap between credentials and availability. MARAD’s 2017 Mariner Workforce Working Group report to Congress [19] found that, of approximately 33,215 mariners holding unlimited credentials, only about 11,768 (roughly 35 percent) were estimated to be actively working at sea at the time of the study. Although this is a single-year, government-sourced estimate, it shows that raw credential counts substantially overstate the workforce available for sealift activation, because most credential holders are not currently seafaring.

5.4.1. The Gulf War Sealift Mobilization (1990-1991)

The 1990-1991 mobilization for Operation Desert Shield and Desert Storm provides the most extensively documented historical case study of American sealift capability under stress. When the decision was made to deploy a half-million-person force to the Arabian Peninsula in August 1990, the planning assumptions underlying American sealift capacity were tested under conditions of genuine strategic urgency for the first time since the Vietnam era. The activation of Ready Reserve Force vessels during Desert Shield exposed workforce vulnerabilities that observers at the time attributed in part to the preceding decade’s enrollment and fleet trends; this article has not independently verified enrollment or fleet data for the 1980s and so does not assert a specific quantitative link, but the qualitative pattern is consistent with the it proposes. Multiple RRF vessels experienced significant delays in achieving operational readiness attributable, at least in part, to crew mobilization challenges. The pool of licensed officers willing and available to respond to activation calls was adequate for the number of vessels ultimately activated a number constrained in planning judgments of the period by the crewing availability assessment rather than by any shortage of suitable vessels [15]. The practical implication was that American forces moved at the speed of the available maritime workforce rather than the speed of strategic transportation requirements.

The Gulf War sealift experience generated substantial post-hoc analysis and produced several legislative and policy responses, including increased RRF funding and greater attention to mariner recall procedures. What it did not produce was a sustained structural reform of the maritime workforce pipeline. The fundamental incentive misalignments and funding inadequacies that had produced the workforce vulnerabilities visible in 1990-1991 persisted through the subsequent three decades, even as the strategic environment evolved in ways that make future sealift demands potentially more severe and the commercial fleet available for military use more constrained.

5.4.2. Oil Price Collapse and Enrollment Sensitivity (2014-2016)

The collapse of global oil prices from over $100 per barrel in mid-2014 to below $30 per barrel by early 2016 is widely discussed in industry literature as a shock to the offshore energy sector, which had absorbed a substantial proportion of maritime graduates in roles including offshore supply vessel officers, dynamic positioning operators, and marine engineers supporting platform operations. This case study is offered as a plausible qualitative illustration of the labor-market-transmission mechanism the pipeline fragility framework proposes, grounded in the well-documented severity of the 2014-2016 offshore sector downturn.

5.4.3. The Pandemic and the Sea Year Crisis (2020-2021)

The pandemic’s impact on the USMMA sea year program constitutes the most recent and in certain respects most structurally consequential training shock in contemporary American maritime education. Beginning in spring 2020, the sea year the twelve-month period during which Kings Point midshipmen serve aboard commercial vessels in active ocean-going trade was suspended in response to pandemic infection risks and logistical impossibility. The suspension persisted through portions of 2020 and 2021, with a limited restart that itself encountered vessel availability and operator participation constraints. The Inspector General of the Department of Transportation noted that the interruption of sea year training created competency deficits that simulator-based and classroom instruction could only partially remediate. The qualitative character of this deficit is as important as its quantitative dimensions: sea year training provides not merely technical competencies but the professional socialization, watchstanding discipline under conditions of real operational consequence, and developed situational awareness that emerge from extended periods aboard working vessels in live commercial operations. The cohorts that lost sea year training carry a competency profile that diverges from historical norms in ways that will propagate through the credential system for decades.

Figure 5 presents a qualitative assessment of competency coverage across eight strategically important domains, scored on a 0-to-10 scale for illustrative purposes. This assessment reflects the author’s own synthesis of STCW competency matrices, Coast Guard examination standards, and general industry commentary, not a validated survey instrument with a defined sample, coding procedure, and reliability testing. The specific decimal-point scores that follow (e.g., 2.8, 5.7) should be read as illustrative approximations of the author’s qualitative judgment, not as measured quantities with that degree of precision. A rigorous version of this analysis would require a purpose-built survey of academy curricula against industry and military requirements, which has not been conducted for this article and is noted as a direction for future research in section 11.

Note: This is a qualitative, author-constructed assessment.

Figure 5. Maritime competency gap analysis—illustrative author assessment (eight domains).

In my qualitative judgment, the pattern is directionally consistent: current academy coverage approaches or meets the operational requirement mainly in traditional navigation and seamanship, where the gap is judged effectively zero, and in bridge resource management, where a moderate gap is judged to persist. Across the five technologically advanced domains—ECDIS/ENC advanced operation, maritime cybersecurity, LNG cargo and propulsion systems, dynamic positioning (unlimited), and autonomous vessel interaction. The assessed gaps are judged more substantial, representing operational requirements that current curricula are estimated to meet at roughly one-quarter to three-quarters of the identified standard. The A2/AD threat environment operations domain, which has no precedent in STCW frameworks and limited representation in Coast Guard examination requirements, is judged to exhibit a substantial gap as well. These are the my estimates, not measured values.

Table 2. Competency gap summary—illustrative author assessment of academy coverage vs. operational requirement.

Note: Source: author synthesis of STCW competency matrices.

Table 2 tabulates the full set of illustrative scores. The five domains that was classified as exhibiting the largest gaps average a judged gap of roughly 5 points, suggesting a matter of qualitative assessment rather than measurement that current academy curricula in these domains may deliver only about half of the competency standard that operational requirements demand. Whether or not the precise magnitude holds up under formal study, these are not peripheral competency areas; they represent domains widely discussed in maritime industry and defense literature as operational frontiers of contemporary and near-future shipping, and a validated instrument to measure them properly would strengthen this article’s argument considerably.

The digitization and automation of maritime operations represents the most structurally significant challenge to curriculum currency in contemporary maritime education, both because of the pace at which relevant technologies are being adopted and because of the breadth of competency domains they affect. Unlike previous generations of maritime technology change which tended to affect specific systems without fundamentally altering the core competency model of professional seamanship the current wave of digitization penetrates virtually every aspect of vessel operation and management, from cargo planning and stowage optimization through bridge navigation and engine management to administrative compliance and crew communication.

Maritime cybersecurity has emerged as perhaps the most urgent single competency gap in contemporary American maritime education. The IMO’s Maritime Cyber Risk Management guidelines [25] formally recognized cyber risk as a shipboard safety and security concern, and the subsequent Resolution MSC.428 (98) [26] mandated incorporation of cyber risks into ships’ safety management systems from January 2021. Yet the translation of these regulatory acknowledgments into actual curriculum content at American maritime academies has been slow and uneven, constrained by the absence of Coast Guard credentialing examination requirements that would force the issue and by the shortage of faculty with both maritime operational experience and current cybersecurity expertise a combination of competencies that commands premium compensation in the private sector that academic positions cannot match.

Dynamic positioning systems, which use automated thruster control to maintain vessel position without anchoring and which are now standard equipment on offshore support vessels, heavy lift vessels, pipe-laying vessels, and an increasing range of specialized commercial tonnage, represent another curriculum gap with direct sealift relevance. DP operation requires specialized certification under the Nautical Institute’s competency framework [27], a certification that many maritime academy graduates lack because DP systems training requires access to dedicated simulators and sea-time on DP-equipped vessels that is logistically and financially beyond the reach of many academy programs. As MSC incorporates DP capable vessels into its auxiliary fleet and as commercial vessels enrolled in the Maritime Security Program are fitted with DP systems, the gap between the credential pool’s DP competency and the operational requirement grows.

Liquefied natural gas as cargo and increasingly as vessel propulsion fuel represents a third curriculum domain where the gap between what commercial shipping requires and what most maritime academies teach is widening rapidly. The global LNG fleet has expanded dramatically, driven by the energy transition and by U.S. LNG export growth that has made American LNG carriers an increasingly significant element of the commercial maritime sector. LNG operations require specialized training in cryogenic cargo handling, gas management systems, and emergency response procedures that go substantially beyond the basic dangerous cargo familiarization most maritime curricula provide. The specialized LNG training programs that are commercially available operate largely outside the academy curriculum structure, requiring employed mariners to seek post-credential training at specialized maritime training centers. An arrangement that functionally places a competency gap between academy graduation and meaningful LNG sector employability.

The U.S. Coast Guard’s credentialing requirements perform an essential function within the maritime education system by establishing minimum standards for the knowledge, skills, and professional competence expected of licensed mariners. These standards provide a necessary baseline for safety and operational reliability. However, their influence can extend beyond setting minimum requirements and, under certain institutional conditions, may also shape the limits of what maritime academies prioritize in their curricula. Where educational institutions operate with constrained funding, instructional time, faculty capacity, and training resources, expanding the curriculum to accommodate emerging competencies often requires difficult trade-offs with existing subjects. In such circumstances, programmes may understandably devote substantial attention to the competencies directly assessed through the Coast Guard credentialing process, particularly because successful examination outcomes are central to students’ professional progression.

The challenge is that the maritime industry is evolving more rapidly than traditional education and credentialing cycles. Advances in digital navigation, automation, alternative fuels, integrated bridge systems, and networked shipboard technologies are creating new operational requirements that may not be fully reflected in established training and assessment structures. Updating examination content is itself a rigorous process involving technical review, industry consultation, regulatory consideration, and validation. While these safeguards are important for maintaining the integrity of professional certification, they can also make the formal curriculum and assessment system less responsive to rapidly emerging skills requirements.

This creates a potential gap between minimum credentialing competence and broader operational readiness. A mariner may successfully meet the regulatory requirements for licensure while still requiring additional training to operate effectively within increasingly digitalized and technologically complex maritime environments. Competencies in areas such as cybersecurity, dynamic positioning, liquefied natural gas (LNG) systems, automation, and interaction with autonomous or remotely operated technologies therefore warrant greater attention. The issue is not that existing credentialing standards are inadequate for their intended safety function, but that maritime education may need complementary mechanisms capable of identifying and developing competencies before they become formal regulatory requirements.

A frequently underappreciated structural contributor to curriculum stagnation is the faculty expertise gap at maritime academies. Senior licensed officers in the commercial shipping industry command compensation packages that significantly exceed maritime academy faculty salaries, creating a structural disincentive for experienced practitioners to transition into academic roles. The result is a faculty demographic in which the most experienced practitioners are often those whose direct operational experience is most temporally distant from present conditions, individuals whose curriculum contributions risk embedding operational assumptions that contemporary shipping practice has superseded. An instructor who sailed as master on conventionally navigated general cargo vessels in the 1990s and 2000s before transitioning to academia brings invaluable professional perspective to curriculum development but may lack direct experiential familiarity with the integrated bridge systems, electronic chart environments, and cyber-integrated operational technology that constitute the working environment of officers commissioned in the current decade.

Some academies have attempted to address this gap through adjunct and visiting practitioner arrangements, but these remain supplements to rather than substitutes for a permanently employed faculty whose expertise reflects current operational realities. Simulator training facilities which have become the primary vehicle for competency development in areas where at-sea training is logistically constrained require continuous software and scenario updates that many academies lack the technical staff and procurement budgets to sustain at appropriate frequencies.

Figure 6. Ready reserve force vessel count and activation status (October 2022 - July 2025). Ready Reserve Force program releases, 2022-2025.

The cumulative effect of enrollment volatility and curriculum stagnation on national sealift readiness is difficult to quantify with precision, in part because the most detailed readiness assessments are classified or access-restricted, and in part because the causal chain from educational inputs to operational outputs operates over time horizons that complicate attribution. The publicly available MARAD program releases are presented in Figure 6.

Table 3.RRF fleet snapshots and reported activation status (2022-2025).

Note: Source: MARAD Ready Reserve Force program releases [28], 2022-2025.

Table 3 presents the complete set of publicly documented RRF fleet snapshots identified for this analysis. Two observations merit attention. First, the reported fleet size grew modestly across the observation window, from 43 vessels in October 2022 to 51 by July 2025, an increase MARAD attributes in part to vessels returning from reduced operating status and in part to new additions. Second, the July 2025 snapshot coincides with a shift to contractor-operated management, which MARAD’s public materials characterize as achieving a higher state of readiness than the preceding government-operated model, though the releases do not publish a verifiable quantitative readiness percentage that would allow that claim to be independently assessed against earlier years. This absence of a consistent, publicly traceable crewing-versus-material readiness metric is itself a finding relevant to this article’s argument: it is difficult for outside analysts, and arguably for Congress, to assess whether the human capital dimension of RRF readiness is improving or deteriorating without more granular and consistently reported data than MARAD currently makes available.

A natural next question is whether the credentialed mariner population is large enough, and appropriately distributed across license grades, to support sealift crewing requirements. Earlier drafts of this article attempted to answer that question with a breakdown of active credentials by specific license grade, distinguishing sealift-critical senior grades such as Master (Unlimited) and Chief Engineer (Unlimited) from ratings and junior licenses. That breakdown could not be traced to a single published, verifiable USCG stock table and has been removed. What the U.S. Coast Guard National Maritime Center’s annual summary reports do verifiably document is an aggregate unexpired Merchant Mariner Credential (MMC) snapshot and a set of annual processing-activity measures, presented in Figure 7.

Note: Source: U.S. Coast Guard National Maritime Center, CY 2024 Summary Totals [29].

Figure 7. Unexpired Mariner Credential Stock vs. Average USCG Processing Time (2020 - 2024).

The aggregate stock trend is, on its own, a modestly reassuring signal the credentialed mariner population is not shrinking in raw numbers. The processing-time trend is less reassuring. Credential requests and applications rose from approximately 48,400 in 2020 to approximately 74,900 in 2024 an increase of roughly 55 percent while average net processing time lengthened by roughly 41 percent over the same period, from 28.6 to 40.4 days [29]. Rising demand for credential actions alongside lengthening processing times is consistent with an administrative capacity strain at the USCG National Maritime Center, a workforce-pipeline-adjacent readiness concern distinct from academy production but relevant to the speed with which credentialed mariners can be issued, upgraded, or renewed for activation. A verified estimate of the specific senior-grade shortfall against sealift requirements would require a publicly available stock table disaggregated by license grade, which does not currently appear to exist in a form that could be independently verified for this article; that absence of published, grade-level credential data is itself a data-transparency gap with direct implications for sealift workforce planning, and closing it is a natural complement to the reform architecture proposed in section 10.

The subsection that follows is qualitatively different from Sections 7.1 and 7.2 above, and that difference should be stated plainly before the figure is presented. Figure 8 is an author-constructed illustrative model, not an empirical result derived from the verified MARAD, USCG, or UNCTAD datasets used elsewhere in this article. Its baseline pool value, attrition assumptions, and requirement trajectories are stated assumptions built for policy discussion purposes. The model is retained here because scenario exercises of this kind are a standard device in workforce planning literature, provided the assumptions behind them are made explicit; those assumptions are as follows. The status quo trajectory assumes an illustrative baseline senior officer pool of 8,950 in 2025, declining under an assumed net annual attrition rate reflecting retirement-age demographic concentration among senior credential holders, informed qualitatively by MARAD’s demographic commentary rather than by a verified age-disaggregated stock table. The Indo-Pacific and combined-theater requirement trajectories assume growth rates informed qualitatively by the defense planning literature cited below [30][31] rather than by a single published numeric target, since no such target is publicly available at this level of granularity. The reform trajectory assumes the five-domain intervention architecture proposed in section 10 begins improving production and retention after a ten-year implementation lag, at an illustrative rate sufficient to approach but not close the Indo-Pacific requirement gap by 2040. None of the output values that follow should be read as officially reported or empirically measured figures.

Figure 8. Illustrative Scenario Model of Senior Officer Requirements (2025-2040). This is an author-constructed hypothetical model, not an empirical projection.

Under the model’s stated assumptions, the illustrative status quo pool declines from 8,950 in 2025 to approximately 7,240 by 2040, driven by the combination of an assumed retirement-age demographic concentration and an assumed insufficient replacement cohort volume from the academy pipeline. Against the assumed Indo-Pacific scenario requirement of approximately 12,650 senior officers by 2040, the model implies an illustrative status quo shortfall of approximately 5,410 mariners. Against the assumed combined-theater requirement of approximately 16,560 senior officers, the model implies an illustrative shortfall of approximately 9,320. These figures describe the internal logic of the model given its stated assumptions; they are not empirical estimates and should not be cited as such.

Under the reform trajectory modelled on the proposed five-domain intervention architecture with an assumed ten-year implementation lag the illustrative senior officer pool reaches approximately 12,280 by 2040, approaching but not fully closing the assumed Indo-Pacific requirement gap. The illustrative combined-theater shortfall would remain approximately 4,280 mariners even under the reform trajectory by 2040, indicating that, within the model’s own logic, the proposed architecture is necessary but not sufficient for combined-theater adequacy. Closing that gap fully would plausibly require additional strategic measures allied burden-sharing arrangements, emergency credentialing pathways, and the cultivation of strategic mariner reserve pools beyond the scope of the five-domain reform architecture this article proposes. Because the model is illustrative rather than empirical, these are directional, policy-discussion conclusions rather than quantitative forecasts.

Figure 9 compares international maritime workforce capacity using UNCTAD’s measure of seafarers per 100,000 of national population. The indicator provides a standardized basis for comparing the relative size of national seafaring populations while accounting for differences in population size. The results show considerable variation across the countries examined, reflecting differences in maritime industries, fleet structures, labor markets, and national dependence on seafaring employment. The United States does not display a uniformly low position across the comparison, and the data therefore do not support a broad conclusion of persistent underperformance. Instead, the figure highlights differences in the scale and structure of national seafaring workforces. Because the indicator measures the existing seafarer population rather than annual training output or strategic sealift capacity, it is best interpreted as a comparative workforce-density measure, not as a direct assessment of maritime education or defense readiness.

Note: Source: [32].

Figure 9. Seafarers per 100,000 population, six-nation comparison (2024).

The United States has approximately 77.6 seafarers per 100,000 population, a rate that exceeds South Korea (54.0), the United Kingdom (48.8), Japan (20.6), and China (9.5) among the nations for which this article has verified UNCTAD data. Only the Philippines (217.9) substantially exceeds the United States, and the Philippines is a distinctive case: its maritime labor economy is built around exporting seafarers to crew the world’s merchant fleet under a large-scale overseas contract labor system, not a domestically retained sealift workforce comparable in structure to the other nations compared here [32].

Table 4. Comparative Maritime Workforce Pipeline Structures Six Nations.

Note: Source: Author synthesis informed by the BIMCO/ICS Seafarer Workforce Report (2021) [33].

The institutional comparison in Table 4 suggests a plausible structural pattern, though the quantitative comparison in Figure 9 does not establish that the nations compared systematically outperform the United States in workforce output: nations that have institutionalized demand-management mechanisms training grant systems, cadet quota requirements, ministry-coordinated enrollment targets may be better positioned to insulate pipeline volume from the commercial labor market cycles to which the American system remains structurally exposed, a hypothesis this article’s enrollment volatility findings (Section 5.1) are consistent with even though the cross-national seafarer-density comparison in Figure 9 does not independently confirm it. The Norwegian maritime cluster approach described in Table 4 is a qualitative illustration of one such institutional model.

The United Kingdom’s Training Support Grant system which provides per-cadet subsidies to shipowners hosting maritime trainees, thereby guaranteeing sea-going training infrastructure independent of individual operator commercial decisions provides a directly applicable model for the American cadet berth expansion proposed in this study. The UK experience demonstrates that such programs can maintain training berth supply through commercial market cycles that would otherwise produce berth contraction, addressing precisely the sea-year vulnerability exposed by the COVID case study in Section 5.5.3. The South Korean cadet quota system applied to Korean-flag vessel operators provides an alternative coordination mechanism that achieves similar pipeline stability through regulatory rather than financial instruments.

The maritime workforce has several characteristics of a public good, which helps explain why federal involvement may be necessary beyond what commercial market incentives alone are likely to produce. A well-trained and sufficiently large pool of U.S. mariners generates benefits that extend beyond the individual firms and workers that directly participate in its development. In particular, the national security value of maintaining an experienced workforce capable of crewing sealift vessels is shared across the wider economy and national defense system, even when the costs of training are borne by individual students, institutions, employers, or state governments. This creates a familiar problem in economic theory: where the broader social benefits of an activity are greater than the private returns captured by those who finance or undertake it, market incentives may not generate the level of investment that national requirements would justify. Maritime education reflects this tension. Students and institutions respond primarily to tuition costs, employment opportunities, wages, and career prospects, while the strategic value of maintaining a reserve pool of qualified mariners is not fully reflected in those market signals. Federal support can therefore be understood not simply as a subsidy to education, but as an investment intended to address the gap between the private returns to maritime training and its wider national-security value.

This logic provides a basis for considering the economic case for federal intervention. A preliminary cost-benefit framework can compare the resources required to expand and stabilize the maritime workforce pipeline with the potential operational consequences of insufficient sealift capacity. For example, a fully funded maritime service scholarship that covers educational and living expenses could require an estimated $150,000 - $200,000 per student over four years, depending on programme structure and institutional costs. Expanding the system by approximately 500 additional officer graduates annually would therefore imply an annual investment in the range of $75 - 100 million. Relative to overall federal defense expenditure, this represents a comparatively small commitment of resources. The more important consideration, however, is not the size of the expenditure in isolation but the capability it could preserve or expand.

The potential cost of an inadequate maritime workforce is considerably more difficult to quantify because it would depend on the nature, scale, and duration of a contingency. Historical sealift operations, including the Gulf War, demonstrate that the availability of vessels alone does not guarantee timely transportation capacity; activation, crewing, coordination, and deployment requirements all affect operational timelines. In a future conflict involving a capable peer or near-peer adversary, delays could become more consequential because transportation networks and lines of communication may face greater disruption. The economic rationale for workforce investment therefore rests less on assigning a precise monetary value to a hypothetical future shortfall than on recognizing the asymmetry between a relatively predictable investment in workforce capacity and the potentially much larger operational consequences of insufficient sealift readiness.

This issue also highlights an important imbalance in maritime policy: investments in ships and other physical assets are often more visible than investments in the people required to operate them. New vessel construction, fleet maintenance, and reserve-force programmes produce tangible assets and concentrated economic activity, making their benefits relatively easy to identify. Workforce development, by contrast, produces a less visible form of capacity whose benefits emerge gradually through education, sea service, certification, and retention. The difference can influence how resources are prioritized even when both forms of investment are essential to maritime readiness. From an operational perspective, however, ships and crews are complementary inputs. A vessel that cannot be adequately crewed cannot deliver its intended sealift function, regardless of its technical capability or readiness status. This makes workforce capacity an important constraint on the effective use of additional fleet capacity. Where qualified mariners are in short supply, further investment in vessels may produce diminishing operational returns unless corresponding investment is made in recruitment, education, training, certification, and retention. The economic implication is not that human capital should replace hardware investment, but that the two should be planned together. Where workforce capacity represents a binding constraint, additional investment in maritime education and workforce development may generate greater incremental readiness than further expansion of physical capacity alone. This provides a strong basis for treating the maritime workforce not as an administrative support function, but as a core component of the national sealift capability.

The most foundational policy recommendation this analysis supports is the development, formal adoption, and statutory codification of a National Maritime Workforce Strategy through the National Defense Authorization Act. Such a strategy would establish enrollment targets for maritime academies calibrated against projected sealift requirements under a defined scenario set; identify the credential and competency gaps between the current workforce’s characteristics and the operational demands of activated sealift vessels; assign specific federal agencies coordinating responsibilities for closing those gaps across defined timelines; and establish a biennial review cycle that updates workforce targets in response to changing strategic requirements and commercial market conditions.

This strategy must be a genuinely tripartite product of the Departments of Defense, Transportation, and Homeland Security with substantive input from maritime labor unions, commercial shipping operators, and maritime academy administrators rather than a MARAD document alone. The interagency character of such a strategy is essential because the levers required to execute it span multiple agency jurisdictions: credentialing standards sit with the Coast Guard and DHS; academy funding and fleet policy with MARAD and the Department of Transportation; military sealift requirements with the Navy, U.S. Transportation Command, and Military Sealift Command; and commercial fleet economics with the Federal Maritime Commission and the Department of Commerce. The model of the Goldwater-Nichols Act’s statutory imposition of joint operational coordination requirements which compelled inter-service coordination that services had not voluntarily developed and suggests that statutory mandate is frequently necessary to achieve inter-agency coordination that bureaucratic inertia and jurisdictional competition would otherwise prevent.

Chronic underfunding and appropriations instability must be addressed through structural rather than incremental reform. The current reliance on annual appropriations for MARAD’s maritime academy programs subjects critical long-horizon institutional investments to the short-horizon pressures of the annual appropriations cycle. Institutions that cannot plan capital investments, faculty hiring, and curriculum development with multi-year funding certainty cannot build the institutional capacity that workforce pipeline stability requires. A structural reform adequate to this problem would establish multi-year authorized funding for maritime academy programs at levels calibrated against enrollment targets derived from the National Maritime Workforce Strategy, with automatic inflation adjustment mechanisms preventing the real erosion of program value that has occurred when nominal funding levels remain static against rising operating costs.

A MARAD-administered Shared Maritime Simulation Infrastructure Fund providing matching grants for state maritime academy simulator acquisition and upgrade would leverage federal investment against institutional co-investment in ways that could upgrade simulation infrastructure at multiple academies within a single authorization cycle. The Great Lakes Maritime Academy’s collaborative simulator arrangements with the maritime industry in its region provide a proof-of-concept for shared infrastructure models that could be scaled nationally. Modern maritime simulators particularly those capable of replicating the ECDIS environments, DP systems operation, and LNG cargo handling scenarios identified as critical gaps in Table 2 cost in the range of $500,000 to $5 million per installation, placing full procurement beyond the reach of smaller academy budgets but within the range of federal grant programs modeled on existing STEM infrastructure investment authorities.

The curriculum challenges identified in Section 6 call for a more coordinated and responsive approach than periodic adjustments to existing courses can provide. One possible institutional response is the establishment of a Maritime Competency Currency Board, comprising maritime academy faculty, commercial shipping operators, military sealift planners, maritime labour representatives, and Coast Guard credentialing officials. The board could undertake an annual review of emerging competency requirements and recommend curriculum and examination-bank updates on a biennial cycle. Such a mechanism would provide a structured means of keeping maritime education responsive to technological and operational change while preserving the consistency and regulatory stability required for safety-critical professional certification. A two-year review cycle would offer greater flexibility than infrequent revisions while avoiding continual disruption to established training programmes.

Within this framework, several competency areas warrant particular attention, including operational maritime cybersecurity, vessel-network protection and cyber-risk integration within safety-management systems; dynamic positioning systems; LNG cargo and fuel management; advanced ECDIS operation; bridge resource management in congested and potentially contested environments; and foundational knowledge of remotely operated and autonomous vessels. These areas reflect the increasing technological complexity of commercial shipping and the evolving requirements of strategic maritime operations. The preliminary gap assessment presented in Table 2 and Figure 6 provides an initial basis for considering these priorities, but its findings should be interpreted cautiously because they represent the author’s qualitative assessment rather than the results of a validated competency measurement. Within this preliminary assessment, dynamic positioning appears to present a notable training gap, while cybersecurity, operations in contested environments, and interaction with autonomous vessels represent particularly emerging areas of curriculum development. These observations should therefore be treated as areas for further investigation rather than definitive measures of workforce competency. A validated survey involving maritime employers, academy faculty, regulators, labour organizations, and defense stakeholders would provide a stronger empirical foundation for identifying priority competency gaps and determining where curriculum investment would have the greatest operational value.

Addressing enrollment volatility requires demand-side and supply-side interventions implemented in combination, because neither alone can resolve the structural misalignment between the incentive architecture governing enrollment decisions and the long-horizon sealift workforce requirements that enrollment must sustain. On the demand side, the federal government should establish a Maritime Service Scholarship program providing full tuition, room, board, and monthly stipend at USMMA or a state maritime academy in exchange for a defined period of sea service obligation on U.S.-flag deep-sea vessels comparable in structure and generosity to the ROTC scholarship program but oriented toward commercial deep-sea employment rather than active military service. This program should explicitly target economically diverse applicants through a need-sensitive award structure, addressing the underrepresentation of lower-income populations whose inclusion would expand pipeline volume and demographic resilience.

A maritime equivalent of Public Service Loan Forgiveness providing loan cancellation for mariners who accumulate a specified number of years of sea service on U.S.-flag vessels would extend enrollment incentive effects beyond the scholarship population to include the broader universe of credential-holders who might accelerate their progression through the licensing ladder if post-graduation sea service carried explicit financial rewards beyond the wage. On the supply side, a per-cadet-berth tax credit for MSP-enrolled vessel operators hosting maritime academy students modeled directly on the British Training Support Grant mechanism that Table 1 identifies as the key institutional feature distinguishing UK pipeline stability from American volatility would reduce the operational disruption costs currently borne by commercial operators, expanding sea year berth availability and reducing the vulnerability to disruption demonstrated in the COVID case study.

Explicitly integrating maritime workforce planning into the Defense Planning Guidance and the Sealift Requirement Study would be the most consequential structural change achievable through existing legislative and executive mechanisms. The current approach defines sealift readiness in terms of vessel activation timelines and cargo throughput rates, without comparable specificity on crew availability, competency, and mobilization procedures. This obscures the human capital dimension of sealift vulnerability in ways that let it be systematically underfunded relative to hardware procurement. As the RRF fleet data in Table 4 and Figure 7 show, MARAD’s public reporting documents vessel counts and point-in-time activation status, but it does not publish a disaggregated crewing-versus-material readiness metric that would let Congress or outside analysts independently verify whether the human capital dimension of readiness is improving or deteriorating. That reporting gap is itself a governance concern, since the process that allocates resources between vessels and workforce cannot be rigorously evaluated against readiness outcomes without such data. The corresponding February 2026 U.S.-flag fleet snapshot is reported in MARAD’s fleet dashboard [24].

The Sealift Requirement Study, updated periodically to reflect current strategic planning assumptions, should be required to include a maritime workforce sufficiency analysis. This analysis would assess whether the current credential pool, adjusted for age, license grade distribution, and estimated mobilization availability, is adequate to crew the activated fleet at the throughput levels the study’s scenario set requires. Where the analysis identifies a gap, as the data in this article strongly suggest it would, the study should be required to recommend remediation measures and identify the funding implications across the relevant DoD and non-DoD budget accounts. This requirement would institutionalize the connection between strategic planning and workforce investment that the current framework allows to go unaddressed.