Industry, Manufacturing & Policy

Version 1 · updated 2026-08-03

Overview

This area covers the physical production of goods—from advanced manufacturing techniques to the heavy industries that underpin modern economies—and the policies that shape where and how that production happens. It is driven by a tension between efficiency (global supply chains, just-in-time logistics) and resilience (reshoring, industrial base protection), a tension sharpened by geopolitical competition, climate goals, and technological change. The area is currently defined by efforts to decarbonize energy-intensive industries, rebuild defense industrial capacity, secure critical components like semiconductors, and deploy new energy sources such as small modular reactors to power heavy industry. Understanding this area means grasping how manufacturing capability, supply chains, and industrial policy interact to determine what gets made, where, and at what cost.

Subareas

Defense Industrial Capacity

• Defense industrial capacity refers to the ability of a nation's industrial base to produce military equipment, munitions, and other defense goods in sufficient quantity and quality to meet national security needs. It includes both government-owned facilities and private contractors, and it depends on a complex supply chain of components and raw materials.
• This capacity has eroded in many countries after decades of underinvestment and reliance on just-in-time supply chains, leading to concerns about the ability to surge production during conflicts. The war in Ukraine has highlighted these weaknesses, prompting efforts to rebuild stockpiles and expand production lines.
• Rebuilding defense industrial capacity involves increasing funding, streamlining procurement, and investing in workforce and infrastructure. It also requires addressing bottlenecks in critical areas like microelectronics, rare earths, and specialized materials, which are often sourced from potential adversaries.

Energy-Intensive Industry & Industrial Decarbonization

• Energy-intensive industries—such as steel, cement, chemicals, and aluminum—consume large amounts of energy and are among the hardest to decarbonize because their processes often require high heat or produce carbon dioxide as a chemical byproduct. These industries are fundamental to modern infrastructure and manufacturing, making their decarbonization a critical challenge.
• Decarbonization options include electrification using clean power, switching to low-carbon fuels like hydrogen, carbon capture and storage, and improving energy efficiency. The economics are difficult because these industries operate on thin margins and face global competition, so higher costs from decarbonization can make domestic producers uncompetitive.
• Policy mechanisms such as carbon pricing, border carbon adjustments, and subsidies for green technologies are being used to level the playing field and incentivize investment. The transition is also driving innovation in new production processes, such as green steel using hydrogen, and is creating new markets for low-carbon materials.

High-Mix & Advanced Manufacturing (CNC, additive)

• High-mix manufacturing refers to production environments that handle a wide variety of products in small to medium volumes, as opposed to high-volume, low-mix mass production. It relies on flexible equipment like CNC machines and additive manufacturing (3D printing) to switch between jobs quickly, and is critical for custom parts, prototyping, and specialized components.
• Advanced manufacturing techniques are increasingly digital, using software for design, simulation, and machine control, and are being integrated with data analytics and automation to improve efficiency and quality. The adoption of these technologies is driven by the need to reduce lead times, lower costs for small batches, and enable new geometries that traditional methods cannot achieve.
• The sector is changing with the rise of 'lights-out' manufacturing, where automation and robotics allow production to run unattended, and with the growth of distributed manufacturing, where digital designs are sent to local facilities to reduce shipping and increase responsiveness. These shifts are making high-mix manufacturing more competitive and are central to efforts to reshore production of critical goods.

Industrial Policy, Trade & Incentives

• Industrial policy refers to government efforts to shape the economy by promoting specific industries or technologies, often through subsidies, tax incentives, tariffs, and regulations. It has made a comeback in recent years as countries seek to strengthen strategic sectors and respond to challenges like climate change and geopolitical competition.
• Trade policy interacts with industrial policy, as tariffs and trade agreements can protect domestic industries or expose them to competition. Border carbon adjustments are a new tool that links trade to climate policy, potentially affecting the competitiveness of energy-intensive goods.
• The effectiveness of industrial policy is debated, with critics pointing to the risk of government failure and market distortion, while supporters argue it is necessary to address market failures and national security concerns. The design of incentives, such as performance requirements and sunset clauses, is crucial to their success.

Reshoring & Industrial Base

• Reshoring is the process of bringing manufacturing production back to a country from overseas, often driven by rising labor costs abroad, supply chain disruptions, and government incentives. It is part of a broader effort to strengthen the domestic industrial base, which includes not just factories but also the skilled workforce, suppliers, and infrastructure that support them.
• The industrial base is seen as a strategic asset, essential for national security and economic resilience, and its decline in advanced economies has prompted policy interventions. Governments use a mix of tariffs, tax breaks, grants, and procurement preferences to encourage reshoring, but success depends on factors like automation, energy costs, and the availability of skilled labor.
• The trend is reshaping global manufacturing, with companies rebalancing their supply chains to be more resilient, often adopting a 'China plus one' strategy. However, reshoring is not a simple reversal of globalization; it involves complex decisions about where to locate production, and it can be hindered by a lack of domestic suppliers for key inputs.

SMRs & Heavy Industry / Nuclear New-Build

• Small modular reactors (SMRs) are advanced nuclear reactors with a fraction of the power output of traditional plants, designed to be built in factories and assembled on-site, which could reduce costs and construction times. They are seen as a potential source of clean, reliable power for heavy industry, which needs constant energy and heat.
• Heavy industry is exploring SMRs to meet decarbonization goals while maintaining competitiveness, as nuclear power can provide both electricity and high-temperature heat for processes like steelmaking or chemical production. However, the deployment of SMRs faces regulatory hurdles, high upfront costs, and public acceptance issues.
• Nuclear new-build, including both SMRs and larger plants, is experiencing a revival in some regions as a response to climate change and energy security concerns. The industry is working on standardizing designs and streamlining licensing to make projects more predictable, but the first commercial SMRs are still in early stages, and their economic viability remains unproven.

Semiconductors & Critical Components

• Semiconductors are the foundational components of modern electronics, and their production is highly concentrated in a few countries, making them a critical vulnerability in global supply chains. The industry is characterized by enormous capital costs, complex manufacturing processes, and rapid technological advancement.
• Governments are implementing policies to secure semiconductor supply chains, including subsidies for new fabs, export controls, and diplomatic efforts to diversify sources. The goal is to reduce dependence on any single region, particularly for advanced chips used in defense, AI, and other strategic applications.
• The semiconductor industry is also facing challenges from rising demand, geopolitical tensions, and the physical limits of Moore's Law. Efforts to reshore production are complicated by the need for specialized talent, clean water, and reliable power, as well as the high cost of building leading-edge facilities.

Supply Chains & Logistics

• Supply chains are the networks of suppliers, manufacturers, distributors, and logistics providers that move raw materials and finished goods from source to customer. Their efficiency is critical to manufacturing competitiveness, but they are vulnerable to disruptions from natural disasters, geopolitical events, and pandemics.
• The COVID-19 pandemic exposed the fragility of just-in-time supply chains, leading to a shift toward greater resilience through inventory buffers, supplier diversification, and digital tracking. Companies are also reshoring or 'nearshoring' production to reduce transit times and risks.
• Logistics is being transformed by automation, data analytics, and the adoption of technologies like blockchain for traceability. However, bottlenecks remain, such as container shipping congestion, labor shortages, and infrastructure constraints, which can cause significant delays and costs.

Open questions

• How can energy-intensive industries decarbonize without losing competitiveness in global markets?
• Will small modular reactors become economically viable and widely adopted for heavy industry, or will they remain niche?
• What policies are most effective in rebuilding defense industrial capacity while maintaining fiscal responsibility?
• Can reshoring efforts succeed in creating resilient supply chains without sacrificing the benefits of global trade?