Utility Engineering: How Underground Data Becomes Organizational Decisions

Most people think of underground utility work as a mapping exercise. It starts there, but true utility engineering (UE) goes much further. This engineering turns raw field data into decisions that project owners, designers, and public agencies can actually act on.

What is Utility Engineering?

This means investigating, defining, and understanding the full utility landscape on a project. Utility engineers:

• Analyze project designs to flag issues before they become expensive problems

• Implement value-engineered and innovative strategies that mitigate utility impacts and optimize project delivery. 

Utility Mapping Services (UMS), which has practiced this discipline since 2002, does the following:

• It applies this work in accordance with ASCE 38/75 standards

• It also documents facility condition

• Moreover, it notifies concerned parties when issues surface. 

• UMS Engineers process and manage utility data using OGC-compliant, GIS-friendly technologies. Also, they coordinate directly with stakeholders. These stakeholders are project owners, design teams, and utility operators. They also consider public and commercial interests to keep public welfare paramount throughout the resolution process.

How Does Utility Engineering Work?

Utility engineering can be structured as a five-step value chain. Here are the five steps:

Step 1: It begins with Recon, a Phase 1 site investigation. In this phase, engineers coordinate with project stakeholders and gather existing information so field operations run efficiently and cost estimates stay accurate. 

Step 2: The second step is Field Operations. At this stage, engineers deploy a broad array of geophysical and survey techniques to non-destructively map every feature within a survey area. This is done to produce a fully georeferenced snapshot of current infrastructure conditions.

Step 3: From there, engineers step in to build Engineered Solutions. They process collected data into detailed 2D and 3D models of infrastructure across the project area. Engineers work closely with client counterparts to recommend additional data collection and solutions for any issues that surface. 

Step 4: Thereafter, the 2D and 3D models feed into a Common Operating Picture. This picture breaks down information silos and lets an organization work cross-functionally instead of in disconnected departments. 

Step 5: In the final step, Workflow Actualization, turns that Common Operating Picture into the foundation for complex, data-powered workflows across the entire organization.

This structured approach transforms utility management from inefficient reactive construction struggles into efficient proactive engineering that expedites construction, reduces risk and cost, and mitigates disruption to the public.

Utility Engineering for Public Agencies

Utility engineering is equally critical after the construction process as it is before it.

UMS designs technology architecture, referred to internally as GeoSuite. This technology helps public agencies efficiently manage utility infrastructure installed within public right-of-way. With the advancement of data acquisition technologies and evolution of utility data standards, right-of-way agencies require a dependable system for tracking. This tracking system is:

• Installed within the public agencies' jurisdictions

• Built around verified utility data 

Utility Engineering Standards and Industry Leadership

UMS leadership has helped shape how the industry defines utility engineering standards. Here is how:

• Philip Meis, UMS President, and Don Haines, UMS Senior Project Manager, contributed to the Standard Guideline for Recording and Exchanging Utility Infrastructure. 

• Dan Colby, UMS Senior VP of Technology, now leads related standards work through the ASCE UESI Utility Risk Management Division's Utility Infrastructure Data Exchange and Security Committee. 

• UMS is also an Organizational Member of the Utility Engineering and Surveying Institute, giving the firm direct access to more than 2,800 UESI members, and Don Haines serves as a director of the SUE Association of America.

Utility Engineering Applications and Projects

This organizational approach to utility engineering has supported some of the most demanding infrastructure programs in the country. 

• On the Los Angeles World Airports Landside Access Modernization Program, UMS applied multiple advanced 3D acquisition technologies to produce a 3D model and BIM output that met defined Quality Levels under the ASCE/CI 38-02 Standard. 

• For the Honolulu Authority for Rapid Transportation, UMS mapped existing utilities along a roughly 5-mile corridor to support design and construction coordination on the City Center Guideway and Stations project. Each project required not just accurate data, but a system for turning that data into coordinated decisions across many stakeholders.

UE, at its core, is about building the infrastructure, both technical and procedural, for an organization to manage utility data well into the future rather than reacting to problems as they arise.

To learn more about how utility engineering processes and standards work in practice, visit https://www.umsi.us/services/engineering-operations/ 

Frequently Asked Questions

Q1. What does a utility engineering firm actually do?

Ans: This company investigates, maps, and analyzes underground infrastructure. Thereafter, the firm applies engineering judgment to flag design conflicts. Next, the UE firm recommends solutions, going well beyond simply locating pipes and cables.

Q2. Why do public agencies need UE support?

Ans: Public agencies manage large volumes of infrastructure within public right-of-way, and UE processes help them build reliable data systems, such as GeoSuite. These systems track and manage those assets accurately over time.

Q3. How is utility engineering different from basic utility locating?

Ans: Utility locating typically provides approximate field markings, while UE applies standardized quality levels, engineering analysis, and data management systems that support formal design, coordination, and construction decisions.