Reshoring and Industrial Automation in the United States

The return of manufacturing operations to the United States from offshore locations has created a direct and measurable dependency on industrial automation technologies. This page examines how reshoring decisions are structured, the automation investments they require, the industries and facility types most commonly involved, and the boundaries that determine when automation-driven reshoring is economically viable. Understanding this intersection is critical for manufacturers, policymakers, and capital allocators operating in the US industrial base.

Definition and scope

Reshoring refers to the deliberate relocation of manufacturing, assembly, or supply-chain operations back to the United States from a foreign country — most commonly China, Mexico, or Southeast Asian nations. The Reshoring Initiative, a nonprofit that tracks announced job returns, reported more than 350,000 manufacturing jobs reshored or created through foreign direct investment in 2022 alone, a figure that represented the highest single-year total since the organization began tracking in 2010.

Industrial automation, in this context, is the deployment of control systems, robotics, and intelligent machinery to perform production tasks with minimal human intervention. The direct relationship between the two is structural: labor cost arbitrage — the primary historical driver of offshoring — is neutralized when automated systems replace direct labor hours. A plant operating with high robot density does not carry the same wage-differential liability that made offshore production attractive in the first place.

The scope of this topic spans discrete manufacturing, process manufacturing, warehousing, and fabrication. For a foundational understanding of the underlying technology framework, see How Industrial Automation Works: Conceptual Overview. The national landscape for these investments is documented at the National Automation Authority, which covers the full spectrum of US industrial automation deployment.

How it works

Reshoring enabled by automation follows a defined economic and operational logic. The process typically advances through five phases:

1. Cost parity analysis — Engineers and financial analysts model total cost of ownership (TCO) for offshore versus domestic production, incorporating logistics, tariffs, lead times, quality rejection rates, and inventory carrying costs — not only direct labor. The Reshoring Initiative's Total Cost of Ownership Estimator is a publicly available tool used in this phase.
2. Automation gap assessment — The manufacturer identifies which production tasks currently performed by offshore labor can be displaced by robotics, CNC machinery, vision inspection systems, or automated material handling. Tasks with high repetition, defined tolerances, and structured environments are primary candidates.
3. Capital investment planning — Automation capital requirements are benchmarked against avoided offshore operating costs. The Manufacturing USA institute network, funded under the Revitalize American Manufacturing and Innovation (RAMI) Act, provides technology roadmaps used during this phase.
4. Facility decision — The manufacturer selects between a greenfield build or brownfield retrofit. Brownfield vs. greenfield automation decisions carry significantly different cost profiles and timelines; greenfield projects offer layout optimization but require 18–36 months to commission at scale.
5. Workforce transition planning — Automated reshored facilities still require skilled technicians for programming, maintenance, and quality oversight. The US Department of Labor and the Manufacturing Institute both publish data indicating a projected shortage of 2.1 million skilled manufacturing workers by 2030 (Deloitte and The Manufacturing Institute, 2021).

Common scenarios

High-volume discrete assembly: Automotive and consumer electronics manufacturers have reshored specific assembly lines where collaborative robots (cobots) can perform repetitive fastening, insertion, or inspection tasks at cycle times competitive with low-wage offshore labor. The automotive sector represents one of the most documented reshoring use cases.

Pharmaceutical and medical device manufacturing: Federal supply-chain resilience initiatives — particularly those accelerated after 2020 API (active pharmaceutical ingredient) shortages — drove reshoring of drug manufacturing to facilities that use highly automated batch processing and aseptic fill-finish lines. The FDA's domestic manufacturing resilience framework informed several of these investments.

Precision machined components: Five-axis CNC and automated tool-change machining centers allow domestic job shops to compete on per-part cost with offshore suppliers when tariff and freight costs are included. Small and mid-sized manufacturers are increasingly viable reshoring candidates at this tier of complexity.

Semiconductor fabrication: The CHIPS and Science Act of 2022 (Public Law 117-167) authorized $52.7 billion in federal funding for domestic semiconductor manufacturing — a sector that is foundationally dependent on photolithography automation, robotic wafer handling, and real-time machine vision inspection systems.

Decision boundaries

Not every product or production process is a viable reshoring candidate, even with full automation deployment. The boundaries that determine feasibility fall into four categories:

Automation density threshold: Products requiring highly variable hand assembly — irregular shapes, soft materials, or mixed SKUs — cannot yet be economically automated. Where robot utilization rates fall below approximately 60% of a shift, the capital cost of automation does not offset the labor differential at current US wage levels.

Volume justification: Fixed automation (fixed vs. flexible vs. programmable automation) requires minimum production volumes to amortize tooling and integration costs. Low-volume, high-mix products favor flexible or programmable automation but still carry higher per-unit capital burdens than high-volume lines.

Tariff sensitivity vs. technology cost: When offshore tariffs are reduced through trade agreements, the cost parity that makes reshoring viable may erode. Conversely, the US International Trade Commission has documented that Section 301 tariffs on Chinese goods — in place since 2018 — have materially shifted TCO calculations in favor of domestic production for categories including steel, aluminum, and electronic components.

Skill availability by region: Reshoring a facility requires technicians with PLC programming, robotics maintenance, and controls engineering competencies. Regions with community college automation training infrastructure present lower workforce risk than locations where those pipelines are underdeveloped.