RELATED ARTICLES

BY 2030

DPGI MEDIA

ARTICLE

4 MIN READ
03.06.2026

EPCM in Industrial Construction: Why More Companies Are Adopting an Integrated Project Delivery Model

This is particularly important for companies focused on long-term development. When designing modern industrial facilities, it is necessary to consider not only the client's current requirements, but also potential changes that may occur years after commissioning. The possibility of capacity expansion, implementation of new technologies, increased automation, or equipment modernization is increasingly being incorporated already at the conceptual design stage.

Ultimately, the ability to see the project as a whole becomes one of the key success factors in industrial construction. Technologies continue to evolve, industrial requirements become increasingly complex, and the cost of mistakes continues to rise. Under these conditions, success belongs not to the companies that can complete individual project stages faster, but to those capable of integrating engineering, construction, and technological solutions into a single system.


Therefore, the growing popularity of EPCM should not be viewed as a temporary industry trend. Rather, it is a natural response of the industrial sector to the increasing complexity of modern projects. And the larger and more demanding industrial challenges become, the greater the demand will be for an integrated approach that enables the creation not merely of facilities, but of efficient industrial enterprises designed for decades of sustainable operation.

At the same time, the role of next-generation engineering companies continues to grow. While the primary responsibility of engineering firms was once limited to preparing documentation, today engineering teams are expected to coordinate complex processes, integrate international technologies, and ensure effective collaboration among all project stakeholders.

This is precisely the direction in which DPGI is developing. The company approaches an industrial facility not as a collection of separate engineering disciplines, but as a unified production system. This approach makes it possible to integrate engineering design, equipment supply, construction solutions, and technological expertise within a single project delivery strategy.

As a result, the approach to industrial construction is gradually changing. Today, investors are interested not simply in building a new facility, but in creating a sustainable production system capable of adapting to market changes, the implementation of new technologies, and the expansion of production capacity. This is why energy efficiency, automation, digital production management, and the potential for future modernization have become key priorities.

Looking ahead, this trend is expected to strengthen even further. Already today, large-scale industrial projects are increasingly being delivered within a unified digital environment, where engineering data, construction documentation, and technological information are integrated into a single management system. Within the next five years, this approach will most likely become the industry standard for the majority of large international projects.

The challenge is that modern manufacturing requires a large number of interconnected decisions to be made at the earliest stages of project development. The selection of process equipment affects architectural solutions, engineering systems influence construction requirements, and future operational needs must be considered long before design begins. When each project participant operates only within their own area of responsibility, conflicts inevitably arise, resulting in additional costs and delays.

This is why an increasing number of investors and industrial companies are adopting the EPCM model — Engineering, Procurement and Construction Management. At its core, this approach focuses not on managing separate project stages, but on coordinating the entire project as a single engineering system.

The primary advantage of EPCM is not the reduction in the number of contractors, nor the transfer of responsibility to a single party. Its value lies elsewhere. The project is treated as a unified organism, where every decision is made with consideration of its impact on the final outcome. Instead of constantly resolving the consequences of misalignment, teams gain the ability to prevent most problems before they occur.

This is particularly evident in large-scale industrial projects. Whether it is a metallurgical plant, a glass manufacturing facility, an energy infrastructure project, or a wastewater treatment complex, the number of project participants may include dozens of companies and hundreds of specialists. Under such conditions, success depends not only on the quality of engineering solutions, but also on the ability to integrate all processes into a unified management system.

In recent years, another factor has become increasingly important — the life-cycle cost of the facility. Clients are less and less likely to evaluate a project solely based on construction costs. Far more important is the question of how efficiently the facility will operate five, ten, or even twenty years after commissioning.

Over the past decade, industrial construction has changed significantly. The reason lies not only in technological development or increasing environmental requirements. More importantly, industrial projects themselves have become substantially more complex.

A modern industrial facility is no longer a collection of separate buildings, utility networks, and pieces of equipment. Today, it is a complex system in which engineering design, technologies, automation, logistics, construction, and future operation directly influence one another. A mistake or lack of coordination at one stage can lead to serious consequences months or even years after production begins.

Until relatively recently, most industrial facilities were delivered through a fairly straightforward process. First, the project was designed, then equipment was procured, followed by construction and commissioning. This approach worked well in an environment of less complex production processes and a relatively slow pace of change. Today, however, it is becoming increasingly clear that managing individual project stages separately is no longer sufficient for effective risk control.