The VPSL system is composed of large, complex infrastructure elements that closely align with existing U.S. industrial capabilities, particularly in sectors that are currently underutilized or facing long-term contraction.

New Opportunities for the Offshore Energy Workforce

The submerged horizontal acceleration section consists of long evacuated tubes installed offshore, which require marine construction, seabed preparation, pressure-rated structures, and long-duration offshore operations. These activities closely mirror the skill sets and equipment used in offshore oil and gas development, positioning firms and workers from that sector to transition directly into VPSL construction and maintenance without retraining for an entirely new field.

Repatriating Heavy Manufacturing

The core acceleration mechanism relies on high-precision rotating screws floated by active magnetic bearings and manufactured at industrial scale. The project's cost models estimate that approximately 5.5 billion dollars' worth of raw materials will need to be converted into manufactured parts. Whether fabricated primarily from steel or aluminum alloys, these components demand exactly the kind of heavy manufacturing, forging, machining, and quality-control capacity that the United States has steadily offshored in recent decades. VPSL would create sustained domestic demand for large-scale metal production and processing by strengthening the economic case for re-onshoring steel, aluminum, and associated supply chains, rather than continuing to rely on foreign suppliers.

Bootstrapping a Domestic Maglev Industry

Advanced magnetic levitation is central to VPSL operation, enabling low-loss motion along the guideway and magnetic coupling between the adaptive nut and the acceleration system. These same technologies are directly applicable to magnetically levitated high-speed rail, an area where the United States has shown repeated interest but has struggled to translate that interest into a self-sustaining domestic industry.

Over the past decade, multiple U.S. efforts have signaled technical ambition but have not achieved commercial scale. Hyperloop initiatives in California attracted significant attention and investment but failed to mature into deployable infrastructure. On the East Coast, the Baltimore–Washington Superconducting Maglev Project would have used Japan's SCMaglev technology to cut D.C.- Baltimore travel to 15 minutes, with a full D.C.- NYC trip in about an hour. But the effort faced cost, coordination, and financing challenges that ultimately stalled the project. Across the border in Canada, progress has been better. TransPod has announced a strategic partnership with Algoma Steel and Supreme Steel to advance the Edmonton–Calgary TransPod Line, a project that the company asserts will create up to 140,000 jobs in Alberta and cut CO₂ emissions by 636,000 tonnes per year. This illustrates how VPSL-encouraged maglev capability development could have significant knock-on benefits to the environment, our workforce, and the domestic steel industry.

Meanwhile, China has rapidly expanded a nationwide high-speed rail network, using scale to drive down costs and establish global leadership. Japan and Germany have sustained mature maglev and high-speed rail industries that export technology worldwide. By contrast, North American firms face a persistent bootstrap problem: without a large, demanding initial application, it isn't easy to justify the investment required to build domestic manufacturing capacity and supply chains.

VPSL provides exactly that bootstrap application. It is a large-scale project (848km) with reduced right-of-way and regulatory complexity compared to intercity rail links and a tolerance for higher initial per-km cost due to its space-access mission. By requiring long guideways, high-reliability magnetic levitation systems, power electronics, and control infrastructure at a meaningful scale, VPSL would create sustained domestic demand for these technologies. This demand could help jump-start a North American magnetic levitation industry, lower costs through learning and scale, and position the United States to partner more effectively with allies such as Japan and Germany, rather than ceding this sector to Chinese-developed technology.

Of course, VPSL would dramatically reduce interplanetary transport costs, including missions to asteroids. At a more speculative level, it could enable commercially viable asteroid resource extraction, with profound implications for rare-earth availability and pricing.

Commercial Aircraft Manufacturing Sector

The Elevated Evacuated Tube (EET) is a lightweight, aeronautically supported structure with design requirements that closely mirror those of large aircraft fuselages. As the commercial aviation industry faces an increasingly uncertain long-term outlook driven by greenhouse gas concerns and growing demand for more sustainable transportation alternatives, VPSL offers aircraft fuselage manufacturers and their skilled workforce a practical diversification option, helping the industry remain productive and retain its workforce as it adapts to the changing transportation landscape.

Gaining Platinum-Group Metals Independence

In the Select Committee on China hearing, U.S. Representative Tokuda said, "We need strong demand from U.S. companies for domestic and allied critical minerals, especially rare earths, to support a strong industry that is not dependent on imports from China." [ref] The EET's lift fans and high-power electrical subsystems intersect with multiple strategic growth areas, including HVDC power transmission, electric propulsion, and advanced motor manufacturing. These components rely on high-efficiency electric machines, power-conditioning hardware, and rare-earth materials—industries increasingly recognized as critical to national competitiveness. VPSL would provide sustained domestic demand for these technologies, reinforcing the economic rationale for expanding U.S. rare-earth processing and electric-drive manufacturing capacity. The EET lift fans require 2.9 billion dollars' worth of eVTOL-class electric motors, and an estimated 1.5 billion dollars' worth of additional motors are within the screw segments. This new demand could help magnet suppliers, such as the alternative permanent magnet material producer Niron in Minnesota, or MP Materials in California, strengthen U.S. domestic magnet production capacity, which in turn would help eVTOL startups (such as Joby, Archer, Wisk Aero, Supernal, and many more) scale more quickly.

Summary

Taken together, VPSL does not require the invention of an entirely new industrial workforce. Instead, it provides a unifying infrastructure project that enables existing American industries and skilled workers to remain productive as the economy evolves, while also stimulating the regrowth of manufacturing and technology sectors that are strategically important to long-term national resilience. In this sense, VPSL functions not only as space infrastructure, but as an industrial transition project aligned with long-term economic and strategic goals.