Over the past decade, global supply chains have been tested repeatedly—and publicly. Pandemic shutdowns, geopolitical tensions, transportation bottlenecks, and trade disputes have exposed how vulnerable many manufacturing models have become. What once looked like efficient globalization is now widely understood as a source of risk.
As a result, reshoring and nearshoring have moved from long-term discussion topics to active strategic priorities. According to multiple surveys cited in From Fragile to Agile, more than 80% of large manufacturers now plan to bring production closer to home. Yet despite this momentum, only a small fraction have completed those plans. The gap between intent and execution remains wide.
This white paper examines why that gap exists—and how additive manufacturing (AM) is being used to help close it.
Why Reshoring Momentum Is Growing
The push to reshore is not driven by a single factor. Instead, manufacturers are responding to a combination of pressures that affect cost, reliability, and competitiveness.
Supply chain resilience has become a primary concern. Long lead times and geographically concentrated sourcing have made it difficult for companies to respond to demand fluctuations or unexpected disruptions. In parallel, governments are encouraging domestic production through legislation such as the U.S. Inflation Reduction Act and CHIPS and Science Act, as well as European initiatives like the EU Chips Act and Net-Zero Industry Act.
However, reshoring does not mean simply rebuilding yesterday’s factories closer to home.
The Barriers That Slow Traditional Reshoring
Despite strong interest, reshoring conventional manufacturing remains difficult. Cost competitiveness continues to be a major obstacle. Domestic production is frequently estimated to be 10–50% more expensive than offshore alternatives unless companies invest heavily in automation or operate at sufficient scale.
Regulatory compliance adds another layer of complexity. In the U.S., manufacturers bear a disproportionately high regulatory burden, particularly small and mid-sized firms that lack the resources to absorb compliance costs easily.
Workforce availability further complicates the picture. Both North America and Europe face persistent shortages of skilled manufacturing labor. Even as investment in new facilities increases, many manufacturers struggle to staff them adequately.
Finally, reshoring requires significant upfront capital. New plants, equipment, automation systems, and robotics demand long-term commitments—often amid uncertainty about tariffs, trade policy, and market stability.
Together, these challenges explain why many reshoring plans remain stuck in the planning phase.
Why Additive Manufacturing Changes the Discussion
Additive manufacturing does not eliminate every reshoring challenge, but it does change the underlying economics and risk profile.
Traditional manufacturing relies heavily on tooling, large batch sizes, and long setup times. These requirements increase upfront costs and make production inflexible. By contrast, additive manufacturing produces parts directly from digital designs, often with little or no tooling, and supports economical production at low volumes.
According to the white paper, AM-driven reshoring can deliver substantial savings in tooling and prototyping, often between 30% and 90%, while reducing lead times by more than half compared to offshore sourcing. Design changes can be implemented without retooling, and minimum order quantities are no longer a constraint.
These characteristics make AM particularly valuable for high-mix, low-volume production, service parts, and applications where speed and adaptability matter more than unit cost alone.
Where AM Is Already Supporting Reshoring
The paper highlights several practical applications where additive manufacturing is already strengthening supply chains.
Localized spare-part production is one of the most common examples. By producing parts closer to where they are needed, manufacturers can reduce inventory, shorten lead times, and minimize downtime. In some documented cases, lead times for spare parts have been reduced by as much as 75%.
In high-precision and regulated industries—such as semiconductor capital equipment—AM enables part consolidation, improved fluid flow, reduced vibration, and higher reliability. Assemblies that once required dozens of components can be redesigned as a single printed structure, improving performance while simplifying manufacturing.
Aerospace, defense, and space applications further demonstrate AM’s reshoring potential. In these sectors, weight reduction, material performance, and reliability often outweigh simple cost considerations. The white paper documents thousands of flight-qualified AM components and multiple satellite missions supported by additive manufacturing over the past decade.
The Reality: AM Has Its Own Barriers
While additive manufacturing offers clear advantages, the paper does not present it as a turnkey solution. Machine reliability, process repeatability, material costs, and post-processing requirements remain ongoing challenges.
Workforce skills are also a constraint. Successful AM deployment requires expertise in design for additive manufacturing, process control, post-processing, and quality assurance, skills that are still in short supply across many regions.
Regulatory qualification and certification remain critical hurdles, particularly in medical, aerospace, and defense applications. Cybersecurity is another emerging concern as manufacturing becomes increasingly digital and distributed.
Importantly, the paper notes that sustained investment in AM research and development has already led to significant improvements in speed, accuracy, repeatability, and cost efficiency. Many of the limitations that defined early AM adoption are being actively addressed.
Why Process Innovation Matters Most
One of the central conclusions of From Fragile to Agile is that additive manufacturing delivers the greatest impact when paired with process innovation.
Simply installing AM equipment is not enough. Manufacturers must rethink workflows, integrate digital design and production systems, and align teams across engineering, operations, and quality. End-to-end digital workflows—from CAD through printing, post-processing, and inspection—are essential for achieving consistent, scalable results.
Moving from Fragile to Agile
Reshoring is no longer a question of if, but how. Traditional manufacturing models struggle to overcome cost, labor, and complexity barriers when simply relocated closer to home.
Additive manufacturing offers a different path—one that emphasizes speed, flexibility, and localized value creation. When combined with process innovation and integrated digital workflows, AM enables manufacturers to build more resilient, responsive supply chains without replicating the fragility of the past.
As the white paper makes clear, moving from fragile to agile requires more than new equipment. It requires new ways of thinking about how products are designed, produced, and delivered.
