The transition from widespread competence to elite innovation—and the resulting decline of the “mid-tier engineer” pipeline crucial for manufacturing—was not an abrupt change, but rather the outcome of profound, interconnected historical, institutional, and strategic shifts within the U.S. economy and education system throughout the latter half of the 20th century. As outlined in Made in the USA: The Rise and Retreat of American Manufacturing by Vaclav Smil, this shift can be traced to several significant developments:
1. The Postwar Shift: Prioritizing Consumption Over Industrial Production
After World War II, the U.S. entered a period Smil characterizes as “the era of high mass consumption,” a time when the country’s manufacturing dominance went largely unchallenged. As Europe and Japan rebuilt their economies, America found itself in a rare position of global manufacturing supremacy. However, rather than reinvesting in industrial infrastructure or focusing on workforce development, the U.S. economy increasingly favored consumption over production. This shift was evident in the growing emphasis on consumer goods—such as cars, appliances, and TVs—that prioritized style and market-driven differentiation rather than engineering quality or long-term durability.
The automobile industry, particularly in Detroit, serves as a quintessential example. Cars were designed for short-term appeal with built-in obsolescence—“overpowered, undertired, and underbraked,” as Smil describes them—focusing more on fashion and planned obsolescence than on efficiency or longevity. Smil draws on the words of James Flink (1985) and his own personal experience with a Pontiac Astre to illustrate the point, noting that such designs led him to become a loyal Honda customer. This culture devalued the careful, incremental engineering essential for building sustainable industrial ecosystems. Product durability, functionality, and quality took a backseat to the drive for quantity and quick profits, signaling a broader economic shift that favored consumption over long-term industrial growth and innovation.
2. The Rise of Finance and Services: Shifting Focus Away from Industrial Strength
From the 1970s onward, particularly accelerating during the 1980s and 1990s, the U.S. economy experienced a profound shift towards the financial, real estate, and service sectors. By 1986, the financial sector overtook manufacturing in GDP contribution, a pivotal moment in the decline of industrial dominance. This reorientation had several key consequences: capital began flowing away from long-term investments in industry, corporations increasingly prioritized short-term shareholder returns over workforce development and research and development (R&D) with a longer time horizon, and manufacturing jobs, though still vital, were increasingly seen as economically obsolete.
Smil argues that this shift was not a natural progression but a conscious decision by corporate leaders. Companies like GE increasingly operated as financial entities rather than traditional manufacturers. He highlights the danger of such a transition, citing the example of the steel industry: “A small company would find it too costly or impractical to set up its own steel industry, but it is hard to imagine how a country can remain a great manufacturing power with a weak and uncompetitive steel sector.” Smil also points to GM’s diversification into financial services—such as the GM Acceptance Corporation’s involvement in mortgages and subprime loans—as a telling example of this strategic misstep. The shift to finance and services, while profitable in the short term, undermined America’s long-term industrial capabilities.
3. Offshoring and the Erosion of America’s Industrial Core
Beginning in the 1970s, U.S. firms began systematically shifting production abroad. Initially moving to Japan and Europe, the trend accelerated after China’s accession to the WTO in 2001, with many industries relocating to China. As Smil documents, entire sectors such as consumer electronics, textiles, and furniture vanished from American soil. Notable closures, like Zenith’s last TV assembly plant in 1992 and Sherrill Manufacturing’s flatware factory in 2010, epitomize this trend of “outright capitulation.” During this period, companies also stopped investing in domestic supply chains, vocational training, and mid-skill technical roles, reinforcing the belief that only “high-value” design and intellectual property were worth maintaining, while “commodity” manufacturing could be outsourced.
Smil argues that this retreat from manufacturing was driven by U.S. companies’ relentless pursuit of profit through offshoring. He points to Apple as a prime example: assembling iPhones in the United States would still have yielded a 50% profit margin and created numerous American jobs. Yet, in its drive for higher profits, Apple chose to manufacture in China instead. Smil’s conclusion is stark: the erosion of America’s industrial capacity was not an unintended consequence but the result of deliberate corporate decisions aimed at maximizing short-term financial gains.
4. The Decline of Technical Education: Shifting Focus Away from Industrial Training
A key underlying factor in the erosion of the U.S. industrial base, as implied by Smil, is the country’s abandonment of vocational and applied STEM pathways that once supported its manufacturing strength. Unlike Germany’s apprenticeship model, which ties technical education to its industrial backbone, the U.S. increasingly pushed all students toward a college track, regardless of their aptitude for such an education. Meanwhile, the country underfunded hands-on technical education, tolerated low proficiency in math and science, and failed to align secondary education with the practical needs of industry.
Smil highlights a recurring complaint from both American employers and foreign managers looking to establish factories in the U.S.: the lack of a qualified labor force. Quoting Andrew Liveris of Dow Chemical, Smil points out that workers with solid math and science skills, capable of operating advanced machinery, are in high demand but are in short supply. This mismatch, Smil argues, contributed to the loss of the “mid-tier engineer” workforce—those technicians, process engineers, and maintenance specialists who once played a crucial role in industrial operations. By neglecting technical training, the U.S. left a critical gap in its labor force that could not be easily filled by the conventional educational system.
5. Policy and Cultural Shifts That Undermined American Manufacturing
Smil underscores how successive U.S. administrations not only accepted deindustrialization but often framed it as progress. Trade policies increasingly favored cheap imports over domestic production, marking a sharp departure from the era of trade surpluses that lasted from 1895 to 1971. Since 1976, the United States has experienced a continuous run of deficits in goods trade, reflecting a systemic shift away from manufacturing. Meanwhile, no coherent industrial strategy emerged to counter rising competitors like Japan in the 1980s or China in the 2000s, leaving the U.S. a weak player in global industrial competition and a comparatively poor promoter of exports.
Cultural attitudes compounded this policy drift. Silicon Valley startups and Wall Street ventures were celebrated, while traditional manufacturing work—from factory floors to tool-and-die shops—was marginalized. Influential voices, such as Peter Drucker, even suggested that manufacturing would follow the same decline that farming had experienced, a perspective Smil challenges by documenting the real-world consequences of widespread job loss and urban decay. Together, these policy and cultural shifts created an economy optimized for elite innovation in software, finance, and biotech, yet incapable of sustaining the broad-based industrial capacity and mid-tier engineering infrastructure that had historically underpinned American manufacturing.
6. Elite Innovation Without National Mission: Silicon Valley’s Strategic Detachment
A parallel to the hollowing out of U.S. manufacturing competence is evident in the technology sector’s growing detachment from national-scale, mission-driven projects, particularly in defense and critical infrastructure. As Alexander C. Karp and Nicholas W. Zamiska argue in The Technological Republic: Hard Power, Soft Belief, and the Future of the West, this shift reflects not merely a sectoral preference but a broader cultural and ideological realignment—one that echoes the retreat from manufacturing documented by Smil.
Silicon Valley’s most talented engineers have increasingly gravitated toward low-risk, high-return consumer technologies, including advertising platforms, social media, and incremental software services. In doing so, they often avoid domains like defense, intelligence, and state infrastructure, which involve long timelines, political complexity, and moral ambiguity. This mirrors Smil’s observation that postwar American firms prioritized short-term profitability and marketability over sustained industrial competence, sacrificing long-horizon capabilities in the process.
Karp and Zamiska emphasize that this avoidance is cultural rather than technical. Historically, close collaboration among government, industry, and research institutions—exemplified by World War II mobilization, Cold War defense R&D, and DARPA-funded projects—produced foundational technologies ranging from radar to the internet. Today, many technologists view such engagement as reputationally risky or ethically fraught, shaped instead by individualist market logic rather than collective national purpose. The result is a misallocation of elite talent away from projects that would strengthen state capacity and strategic resilience.
This pattern mirrors the earlier strategic misjudgment in manufacturing: the belief that offshoring physical production while retaining “high-value” activities at home would be harmless. Just as Smil shows that industrial strength depends on a robust ecosystem of mid-tier engineers, technicians, and integrators, Karp argues that technological supremacy—especially in AI and other critical domains—requires deep engagement in defense, security, and infrastructure. Today, the United States has a bifurcated system: world-class researchers and startups at the top, but weakened pipelines for applied engineers, integrators, and mission-oriented technologists in the middle. Across both manufacturing and advanced technology, the country optimized for private success while disconnecting elite innovation from national purpose, assuming that markets alone could sustain strategic capacity.
7. Comparative Contrast: China’s State-Led Talent Accumulation vs. America’s Market-Led Talent Attrition
The erosion of America’s mass technical competence becomes clearest when contrasted with China’s industrial rise, which followed an almost diametrically opposite logic: deliberate, state-coordinated accumulation of engineering talent at scale, sustained over decades. Where the U.S. assumed markets would naturally preserve strategic capacity, China treated human capital for manufacturing and engineering as a national infrastructure project.
- Mass STEM Literacy as a Strategic Filter – Unlike the U.S., where universal college attendance often lacked technical rigor, China’s education system has centered on mathematics, physics, and chemistry since the restoration of the Gaokao in 1977. These subjects function as a nationwide sorting mechanism, channeling millions of students with strong quantitative skills into engineering, applied science, and manufacturing, ensuring mass competence is structurally reinforced rather than incidental.
- Scale as a National Asset – China has deliberately built depth, redundancy, and continuity in technical labor, creating the world’s largest pool of R&D personnel by the 2020s. Massive STEM enrollment, parallel vocational tracks, and tight integration between universities, state labs, and industry have expanded the mid-tier engineering layer—process engineers, equipment specialists, and manufacturing integrators—treating them as essential to national power rather than as “commodity labor.”
- Global Integration Without Domestic Hollowing – Unlike the U.S., which offshored production while retaining design and IP, China absorbed global expertise through student exchanges, talent programs, and multinational R&D centers while keeping production, integration, and scaling domestic. This approach reinforced domestic industrial ecosystems rather than hollowing them out, ensuring learning-by-doing remained tied to national capability.
- Long-Term Horizons and Institutional Memory – China’s talent and industrial strategies emphasize multi-generational continuity, contrasting with U.S. short-termism driven by quarterly profits and electoral cycles. Technical talent is treated as a strategic reserve, aligned with industrial policy, R&D priorities, and national projects, avoiding the disconnection between education and production observed in the U.S.
- Engineer Dividend vs. Hollowed Middle – The outcome is stark: the U.S. maintains elite innovation but suffers an eroded mid-tier engineering layer, fragmented production, and a weakened national mission. China, by contrast, couples broad-based technical literacy with a robust middle layer of applied engineers, tightly integrates production with design, and aligns talent strategies with state objectives, creating systemic competence capable of sustaining manufacturing at scale.
Summary & Implications
The erosion of U.S. industrial capacity was neither accidental nor inevitable; it was the logical outcome of a decades-long pivot from the integrated, production-oriented model that built American manufacturing strength (1865–1970) toward a financialized, consumption-driven, and globally fragmented economy. Offshoring, short-term profit-seeking, and an education system that neglected technical rigor hollowed out the middle layer of engineers—leaving the U.S. rich in elite innovators but poor in the applied technologists who turn ideas into scalable factories, supply chains, and durable output. Smil emphasizes that this retreat “resulted primarily from the deliberate and eager pursuit of offshoring by profit-maximizing US companies,” illustrating a structural parallel with Silicon Valley’s avoidance of mission-driven, long-horizon technological projects: elite capability alone cannot sustain national power when the supporting technical ecosystem is absent.
China’s rise confirms Smil’s core insight: manufacturing and technological strength depend not on isolated genius or elite innovators, but on large, disciplined, technically literate populations embedded within robust production systems. By coordinating education, vocational training, industrial policy, and domestic production at scale, China rebuilt the mid-tier layer that the U.S. dismantled. The structural lesson is clear: elite innovation at the top is insufficient if the middle—the engineers and technologists who translate ideas into tangible, national-scale outcomes—has been allowed to collapse.
References
- The Technological Republic Hard Power, Soft Belief, and the Future of the West. Alexander C. Karp, Nicholas W. Zamiska. 2025
- Made in the USA: The Rise and Retreat of American Manufacturing. Vaclav Smil. The MIT Press (2013).
- “China graduates 1.3 million engineers per year, versus just 130,000 in the U.S. We need AI to bridge the gap”. Paul Eremenko, Ashish Srivastava. January 14, 2026. https://finance.yahoo.com/news/china-graduates-1-3-million-140500624.html