Reshoring has returned to the center of business strategy. Manufacturers are reconsidering where they source components, assemble products, and maintain inventory as they respond to geopolitical tension, transportation disruptions, tariffs, and the operational lessons of recent supply chain crises.

It is understandable that technology leaders would ask whether the same logic should apply to software engineering. If bringing production closer creates more control and resilience in manufacturing, perhaps bringing every developer onshore should produce the same advantages for technology organizations.

The comparison is appealing, but it overlooks an important distinction. Manufacturing and software engineering do not move through the same supply chain, face the same geographic risks, or depend on the same kind of proximity. A delayed component can stop a production line, while software delivery depends primarily on access to specialized talent, secure digital infrastructure, effective collaboration, and disciplined engineering processes.

That does not mean location is irrelevant. Certain projects have legal, contractual, security, or data residency requirements that make onshore delivery necessary. For most commercial software teams, however, the better question is not whether all engineering work should return home, but which model provides the right combination of control, talent, speed, collaboration, and cost.

“Software Has Supply Chain Risk Too”

This argument is correct, but software supply chain risk is fundamentally different from the risk faced by manufacturers. Physical supply chains depend on components, factories, transportation routes, ports, customs processes, and inventory availability. Moving production closer can reduce exposure to disruptions across those physical links.

Software also depends on an extensive supply chain, but it is made up of open-source libraries, cloud platforms, development tools, third-party APIs, external data sources, and managed services. A compromised package, unavailable cloud provider, or vulnerable dependency can disrupt a product regardless of whether its engineers work domestically or internationally.

This means that reshoring the engineering team does not automatically make the software supply chain more resilient. A fully onshore team may still depend on code libraries maintained around the world, infrastructure operated by global providers, and services delivered across multiple jurisdictions.

Managing that risk requires a software-specific response. Organizations need secure development practices, dependency scanning, controlled repository access, software bills of materials, vendor assessment, code review, vulnerability management, and reliable incident-response processes. Geographic proximity can reduce some coordination challenges, but it cannot replace the technical controls that software resilience requires.

“Trade Policy and Tariffs Make Onshore Engineering Safer”

This reasoning carries considerable weight in manufacturing because tariffs can materially change the cost of importing components or finished products. A company may decide that domestic production is more predictable once transportation, inventory, customs, and tariff exposure are included in the calculation.

Engineering services do not move through the same import process. Source code is transmitted digitally, and a pull request does not wait at a port or require physical customs clearance before it can reach the rest of the development team.

The distinction is reflected in regional digital trade frameworks. Under the United States-Mexico-Canada Agreement, participating countries do not impose customs duties on digital products transmitted electronically. The agreement also supports cross-border data transfers, subject to relevant public policy exceptions and local requirements.

Cross-border software work can still involve taxes, employment regulations, data protection, intellectual property, and contractual obligations. Those considerations should form part of the due diligence process when selecting a delivery partner. They are not, however, equivalent to the tariff and inventory pressures that often justify manufacturing reshoring.

For a technology leader, the more relevant questions concern how intellectual property is protected, which jurisdiction governs the agreement, how engineers access development environments, and whether data handling complies with applicable requirements. Those risks depend on the structure and governance of the engagement, not simply on whether every engineer is located in the United States.

“Critical Software Should Remain Onshore”

There are situations in which this argument is entirely valid. Defense programs, government systems, critical infrastructure, and other sensitive environments may impose citizenship, security clearance, data localization, or domestic delivery requirements. In those cases, an onshore model may be a contractual or regulatory necessity rather than a strategic preference.

The problem begins when the same conclusion is applied to all software development. A commercial SaaS platform, retail application, or internal analytics system may have strict security requirements without requiring every engineer to work within the same country.

A distributed engineering team can operate with role-based access, least-privilege permissions, encrypted connections, audited repositories, secure development environments, and clear confidentiality obligations. These controls do not remove every risk, but neither does domestic location by itself.

An onshore engineer with excessive access and weak security practices can create more risk than a nearshore engineer working within a carefully controlled environment. The strength of the security model depends on how access, code, data, and accountability are managed.

Organizations should therefore evaluate each initiative according to its actual risk profile. If a regulation, government contract, or customer agreement requires domestic delivery, that requirement should determine the model. When no such condition exists, security should be assessed through evidence, including certifications, access policies, development practices, auditability, and incident-response capabilities.

“Reshoring Will Solve the Engineering Talent Problem”

Bringing roles onshore can provide full working-day alignment and access to the domestic employment market. What it cannot do is increase the number of experienced engineers available within that market.

Demand for advanced technical skills continues to grow. The U.S. Bureau of Labor Statistics projects software developer employment to increase by 15.8% between 2024 and 2034, representing approximately 267,700 additional jobs. It also projects particularly strong growth for data scientists and information security analysts.

These projections do not mean every technology role is equally difficult to fill. Availability depends on the required skills, industry, location, seniority, and hiring conditions. They do indicate that companies will continue competing for software, cloud, data, security, and AI expertise.

Consider a company that needs engineers with experience in Kubernetes, cloud security, and production AI. Restricting the search to one domestic market does not create more candidates with that combination of skills. It can instead place the company in direct competition with larger organizations pursuing the same limited group.

Direct hiring may still be the best option for roles central to long-term product vision, technical leadership, or company culture. However, treating reshoring as a general solution to talent scarcity confuses the location of the search with the size of the available talent pool.

Nearshoring approaches the constraint differently. It expands the geographic search while maintaining enough working-day overlap for engineers to collaborate with U.S. product, design, and technology leaders.

“Control Requires Keeping the Team Close”

Control is one of the strongest arguments in favor of reshoring. Technology leaders want visibility into delivery, confidence in quality, rapid escalation when problems emerge, and assurance that external engineers understand the product they are building.

Those objectives are reasonable, but physical proximity does not guarantee them. A domestic vendor can still work as a disconnected delivery unit, receive requirements through intermediaries, and provide limited visibility into its decisions. An internal team can also struggle with unclear ownership, inconsistent documentation, and weak engineering standards.

In software development, control comes primarily from the operating model. Teams create visibility through shared repositories, planning sessions, code reviews, technical documentation, sprint ceremonies, delivery metrics, and clearly assigned ownership.

A nearshore team can participate directly in those processes when it is structured as an embedded extension of the internal organization. Engineers can attend the same meetings, work within the same environments, communicate with product owners during the business day, and follow the same quality and security standards.

This is where time-zone alignment becomes particularly important. When working hours overlap, a developer can clarify a product requirement, request a code review, or resolve an incident without waiting until the following day. That operational proximity can be more valuable than physical proximity without meaningful integration.

What Nearshoring Actually Solves

Nearshoring is not a universal alternative to onshore hiring, and it should not be presented as one. It addresses a different set of constraints: limited access to specialized talent, pressure to expand capacity, the need for close collaboration, and the difficulty of committing to permanent headcount for every technical initiative.

Latin American engineering teams can provide substantial working-day overlap with U.S. organizations. The exact difference varies by country, U.S. location, and daylight saving time, but the regional model generally enables engineers and product leaders to collaborate during the same day.

Nearshoring also expands the talent search beyond a single domestic market. A company building an AI capability, for example, may need a backend engineer, cloud specialist, data engineer, and quality engineer with experience evaluating model behavior. An established nearshore partner may be able to assemble that combination without requiring the company to recruit each role separately.

The model can also provide greater flexibility when the need is connected to a specific roadmap stage. A company may require additional engineers for a platform migration, product launch, cloud initiative, or integration program without knowing whether the same team structure will be necessary several years later.

Choosing the Model That Fits the Work

Reshoring or direct onshore hiring makes sense when the work must remain domestic, when a role carries long-term strategic ownership, or when the organization needs a leader deeply connected to product direction and company culture.

Nearshoring becomes a stronger option when a company needs to access a broader talent pool, add specialized skills, expand delivery capacity, or collaborate closely without absorbing the cost and delay of building every capability internally.
Many organizations will benefit from a hybrid model rather than an absolute choice. Product leadership, architecture ownership, and critical security responsibilities can remain within the internal team, while nearshore engineers support development, infrastructure, quality assurance, integrations, or other defined workstreams.

The sourcing decision should therefore begin by separating the responsibilities that require domestic presence from those that require close collaboration. Once that distinction is clear, technology leaders can select the model that addresses the actual constraints of each initiative.
Nearshoring and Reshoring at a Glance

How AssureSoft Approaches Nearshore Engineering

AssureSoft has spent two decades building nearshore engineering teams in Latin America because the model responds to the actual constraints many technology organizations face: limited access to specialized talent, pressure to increase delivery capacity, and the need to collaborate in real time.

Our engineers integrate into clients’ existing workflows, development environments, and communication channels. The objective is not to create a separate team that receives tasks from a distance, but to extend the internal organization with engineers who participate directly in planning, execution, review, and continuous improvement.

For companies evaluating how external talent can support growth, our article on staff augmentation for startups examines the trade-offs between flexible engineering capacity and traditional hiring. Organizations exploring regional talent can also review why Colombia has become a strategic nearshore market for U.S. technology teams.

Reshoring remains a valid strategy when legal requirements, contractual obligations, or strategic ownership make domestic delivery necessary. For most commercial software organizations, however, control, quality, and reliability do not depend on placing every engineer within the same national border. They depend on choosing the right people, controls, and operating model for the work.

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Evaluating nearshoring, reshoring, or a hybrid engineering model for your technology strategy? Contact us to discuss your priorities.