From Molecules to Megawatts: Why Midstream Should Lead the Electrification of Large‑Scale BTM Energy Consumers

By Jeff Stake, P.E. | EVP, Processors and Engineering, NTACT Operations

Our energy system is undergoing a structural shift in how power is produced, delivered, and consumed. Across North America, hyperscale data centers, artificial intelligence infrastructure, and advanced manufacturing facilities are driving a surge in power demand that is both unprecedented in scale and defined by compressed timelines. These loads require not only significant capacity, but also levels of reliability that traditional grid infrastructure is increasingly challenged to deliver. As demand grows, so does the responsibility to meet it responsibly, making efficiency, emissions management, and infrastructure discipline as critical as capacity itself. The result is a growing gap between how power is currently delivered and how it must be delivered to support the next generation of industrial demand.

In response, large energy consumers are turning toward behind-the-meter (BTM) generation and microgrid systems that allow electricity to be produced closer to where it is consumed. Yet while industry attention remains focused on generation technologies like turbines, reciprocating engines, hybrid systems, and emerging low-carbon solutions, the primary constraint is not technological.

The bottleneck is not capability - it is the lack of coordinated execution across stakeholders.

BTM power systems succeed only when fuel supply, infrastructure integration, and operations are engineered as a single, coordinated system. The challenge is not building generation assets in isolation, but designing end-to-end energy delivery systems that are reliable, scalable, and aligned with existing infrastructure while navigating the complexities of a less mature market.

This is where the midstream industry has a distinct advantage. By definition, it was created to solve the world's energy delivery challenges. The result is an industry built on decades of practical experience delivering energy at scale, which is exactly what is required across the energy value chain. The modern buildout must be led by professionals who understand that these challenges must be solved with the environment, safety, and practical operation at the forefront of the design. This approach also reduces friction for pipeline operators by aligning new demand with existing transportation structures rather than introducing fragmented and unstructured interconnection requests from less experienced counterparties.

Midstream operators already manage the full lifecycle of energy delivery. They gather, process, transport, and transform hydrocarbons into marketable products at scale while maintaining a disciplined focus on minimizing environmental impact through responsible siting, emissions management, and infrastructure efficiency. The same molecules that move through midstream systems today can be delivered not only as natural gas, but as electricity, provided infrastructure and commercial models evolve to support that conversion.

Gas processing facilities separate hydrocarbon liquids into salable products such as Y-grade. The remaining methane-rich stream - residue gas - is widely recognized as a cleaner-burning fuel and is transported through transmission pipelines to downstream markets, where it is commonly used for power generation. In an electrifying economy, the same residue stream can be converted into electricity closer to the point of demand.

This is not a departure from midstream's role. It is an extension of it. At its core, this is the conversion of one energy form into another, transforming molecules into electrons. The opportunity, therefore, is not simply to build new power infrastructure. It is to redefine how energy is delivered in the form required by the customer, at the location where it creates the most value.

How Midstream Already Moves the Energy

The shift toward electrification doesn't change midstream's mission - it expands it. Midstream has never been about molecules alone, it has always been about delivering energy where and when it is needed. Gathering systems move production streams to processing plants, where facilities transform those streams into marketable products. Pipeline networks then move those products across regions, while compression and storage systems ensure consistent and reliable delivery.

Energy transportation is not unique to pipelines. Commodities move through maritime shipping, rail, and trucking networks. Pipelines are simply the most efficient system for natural gas. The principle remains the same: energy must move from supply to demand. Electric infrastructure operates on a parallel model. Pipelines move energy in molecular form, while transmission and distribution systems move energy in electrical form. Both are networks designed to move energy across geography.

BTM power introduces a conversion step at the edge of that network, allowing natural gas molecules to be converted into electricity closer to where the energy is ultimately consumed. Midstream serves as a structuring layer between producers, pipelines, and end users. By centralizing energy delivery through experienced operators, the industry can reduce inefficiencies and ensure scalable integration with existing infrastructure.

BTM Power Generation: Why Reliability Is the Real Product

The rise of artificial intelligence and hyperscale data infrastructure is fundamentally reshaping power demand. Data centers operate under reliability standards far beyond those of most industrial facilities, where even momentary interruptions can have significant operational and financial consequences. To meet these requirements, large energy consumers are increasingly deploying BTM generation and micro-grid systems that offer greater control over reliability and allow projects to move forward on timelines that utility infrastructure alone often cannot support.

This expectation aligns directly with the operational culture of midstream. Gas processing plants, compression stations, and pipeline systems are built to operate continuously. They rely on redundancy, real-time monitoring, and disciplined operational practices.

Midstream Sees the Entire Energy System: The Advantage No New Entrant Can Replicate

The midstream industry operates at the center of the energy value chain and understands system constraints and opportunities in ways isolated developers cannot. It sees congestion, underutilization, and regional imbalances. This visibility allows midstream to determine where converting molecules into electrons improves overall system efficiency and asset operability. Commercial knowledge allows midstream teams to optimize within constrained markets, create an alternative pathway for monetizing residue gas, and transform discounted molecules into usable or marketable energy.

Additional compelling opportunities emerge when producers become the electricity customers. The producer supplies fuel or feedstock, then midstream converts it, and manufactured electricity powers production operations creating a closed-loop energy system. This model will allow producers to capture value from their own feedstock and avoid exposure to constrained markets.

Natural Gas Power Generation for Data Centers: Why Infrastructure Experience Matters

New entrants underestimate the complexity of building reliable energy infrastructure. Midstream brings decades of experience in siting, integration, and execution. This enables efficient deployment while minimizing cost and environmental impact.

BTU-to-Power Delivery: A New Model for BTM Energy

BTP (BTU-to-Power) is a flexible energy delivery model where energy can be delivered as fuel or electricity from the same resource. BTP is not a generation asset - it is a delivery model, and it aligns infrastructure, commercial structure, and system needs while reducing friction for pipelines, improving producer economics, and delivering reliability for end users.

This model formalizes what midstream already does - delivering energy - while expanding how that energy can be delivered based on system needs. This standard form would allow off-takers to nominate delivery in either molecular or electrical form.

How to Learn More and Get Involved

If you're interested in these issues, you don't have to figure things out on your own or start cold-calling. GPA Midstream and GPSA members are considering development of a committee focused on BTM energy delivery. Members can contact GPA Midstream Vice President, Technical Services Dave Curtis to get involved. Contact GPA Midstream Director, Supplier Services and Safety Brandie Disbrow to become a GPA Midstream or GPSA member.

The Opportunity Ahead: Who Will Lead the Next Era of Energy Delivery?

Electrification is accelerating. The question is not molecules or electrons, it is who has the capability to design and operate systems that deliver both. The midstream industry already knows how to deliver energy and has the responsibility to lead this transition - and make sure it gets done right.

We deliver energy. Period.

Jeff Stake, P.E. is Executive Vice President, Processors and Engineers at NTACT Operations and former President of GPSA.

Frequently Asked Questions

Q: What is behind-the-meter power generation and why does it matter for data centers?
A: Behind-the-meter (BTM) power generation refers to electricity produced on-site or adjacent to a facility, bypassing the traditional utility grid. For data centers and AI infrastructure, BTM generation provides the reliability, speed to deployment, and scale that grid interconnection timelines often can't deliver. This makes it a critical solution for hyperscale energy demand.
Q: What role does the midstream industry play in electrification?
A: Midstream operators already manage the full lifecycle of energy delivery, including gathering, processing, transporting, and transforming natural gas at scale. This positions them uniquely to extend that role into power delivery, converting residue gas into electricity closer to the point of demand rather than shipping molecules to distant markets.
Q: How does natural gas support large-scale power generation for AI and data infrastructure?
A: Natural gas, particularly residue gas from midstream processing, is a reliable, scalable fuel for on-site power generation. Gas turbines and reciprocating engines can be deployed faster than new utility grid connections, making natural gas BTM generation the most practical near-term solution for hyperscale data centers that need hundreds of megawatts quickly.
Q: What is the BTU-to-Power (BTP) delivery model?
A: BTP is a flexible energy delivery framework where the same resource, natural gas, can be delivered either as fuel or converted into electricity depending on what the end user needs. Rather than a generation asset, BTP functions as a delivery model that aligns infrastructure, commercial structure, and system needs across producers, midstream operators, and large energy consumers.
Q: What is the biggest challenge in building reliable BTM energy systems?
A: The primary constraint isn't technology, it's effective coordination. Reliable BTM systems require fuel supply, infrastructure integration, and operations to be engineered as a single end-to-end system. Midstream operators, with their experience managing complex energy delivery infrastructure, are uniquely positioned to lead this coordination across the value chain.